Construction / Design Standards
General
Standard No. Standard Name
Current
Previous
Revision Date Revision Date
Revision Summary
Author
00 00 00
Introduction
10/17/11
6/30/04 Updated Standard No.
Jherschelman
01 41 00
Regulatory Requirements
10/17/11
6/30/04 Updated Standard No.
Jherschelman
Design Documents Information Requirements
10/17/11
General Commissioning Requirements
10/17/11
10/2/08 1.03, D, #5, Updated Standard No.
Sfox,
Jherschelman
01 91 01
Commissioning Steps
10/17/11
6/30/04 Updated Standard No.
Jherschelman
01 91 02
Asset Tagging List
10/17/11
6/30/04 Updated Standard No.
Jherschelman
01 91 03
Contractor Installed Equipment Input Form
10/17/11
6/30/04 Updated Standard No.
Jherschelman
01 42 00
01 91 00
ELECTRICAL STANDARDS UPDATE TRACKER
ELECTRICAL STANDARDS TABLE OF CONTENTS
9/8/10 Added1.01.8.q) 1.02.9.x)11.v) 13.t) 1.03.9.y)
11.y) 13.u), Updated Standard No.
Jherschelman
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN / CONSTRUCTION
GUIDELINES & STANDARDS
GENERAL
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN / CONSTRUCTION GUIDELINES & STANDARDS
GENERAL
TABLE OF CONTENTS
Section – Index
00 00 00 - Introduction ...................................................................................................... 1
01 41 00 – Regulatory Requirements................................................................................ 2
01 42 00 - Design Documents Information Requirements................................................. 3
01 91 00 - General Commissioning Requirements............................................................ 4
01 91 01 - BSC Commissioning Steps .............................................................................. 4
01 91 02 - BSC Asset Tagging List ................................................................................... 4
01 91 03 - Contractor Installed Equipment Input Form...................................................... 4
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 00 00 00 - INTRODUCTION
1.01
Mission Statement

To identify specific materials, systems and/or construction methods that are
required for consistent facility value.

To ensure that the Beaumont Health System facilities are designed,
engineered and constructed with materials and systems that provide optimum
value thru a combination of first cost, long-term cost and quality.

To provide a forum for the introduction of new building materials and systems,
and a forum to change building materials and systems.
o Introduction may be made by:

Jones Lang LaSalle @ Beaumont Health System Staff

Design Professionals

Construction Professionals

Suppliers/Vendors

1.02
To publish the agreed upon standards and guidelines in a form easily
understood by architects, engineers, contractors and JLL@BHS staff.
Introduction
Set forth in these documents are standards and guidelines intended to serve as
design and construction criteria for the Beaumont Health System facilities. As
such, they reflect the planning, design, construction, and maintenance expertise
of JLL@BHS personnel and consultants
This information is to be applied to all renovation and new construction from the
very first planning and design stages through actual construction and facilities
maintenance and management. The information included within each section
contains procedures to be followed, materials to be used, or design guidelines
which we have found to be appropriate to assure the quality desired now and
through our future maintenance of these facilities. Facilities personnel, as well as
outside architects, consultants, and contractors, should become familiar with
these standards and guidelines.
00 00 00 Introduction
Issued 6/30/04
Revised 10/17/11
Page 1 of 2
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 00 00 00 - INTRODUCTION
1.03
Scope of the Standards
The standards included herein shall serve as a code of quality for all design,
construction, and maintenance procedures and projects. The level of quality
deemed by any one standard is determined on the basis of reliability,
serviceability, safety, and cost (including design, construction, inventory,
operating, and maintenance costs). The information contained in these standards
is not specific to any one project, but common to all.
1.04
A Dynamic Document
Standards from all areas of design, construction and maintenance are continually
being developed. This document is a "living" document keeping abreast of new
and better procedures or materials as we become aware of them. To this end,
JLL@BHS Policy 204, Maintenance of Design & Construction Guidelines,
has been established to provide a mechanism by which the document can be
update as the need arises.
1.05
Standards Versus Specifications
These standards and guidelines shall form the basis from which to create
drawings and specifications. All of the concepts and procedures included are for
the use of Jones Lang LaSalle @ Beaumont Health System contracted
designers, consultants and contractors. The use and inclusion of these standards
in bid documents does not relieve the consultant or architect of the responsibility
and legal liability for any bid documents created from these standards.
1.06
Availability
These standards are developed and maintained by the Facilities Engineering
Section of Jones Lang LaSalle @ Beaumont Health Systems, L. L. C, 30963
Woodward Avenue, Royal Oak, Michigan 48073, Julia Herschelman, telephone
248-551-3632.
We appreciate any feedback you would like to give on the content or format of
the standards.
00 00 00 Introduction
Issued 6/30/04
Revised 10/17/11
Page 2 of 2
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 41 00 – REGULATORY REQUIREMENTS
1.01
General
A.
All codes, rules, regulations, guidelines, requirements, etc. which are used
or referenced in the preparation of documents, and/or are required to be
complied with by the Agencies Having Jurisdiction, shall be listed on the
drawings or in the specifications of the project documents. The years and
editions of these shall be accurately noted in reference to the respective
time frame of the project.
B.
Included on the drawings or in the specifications of the project documents
will also be the following information:
1.
2.
3.
4.
5.
Building Occupancy Classification
Building Construction Type
Building Elements Listings including the hour ratings and assembly
designation
Building Seismic Criteria and Classification
Finish Material Ratings
C.
Also included, for record and future reference, on the drawings or in the
specifications of the project documents, shall be any granted variances or
exceptions from any of the Authorities Having Jurisdiction. Inclusion of
these in the record documents will ensure that they can be easily found,
when the need arises, after the project is completed.
D.
All projects, in health care occupancies, will be designed to the 2000
NFPA 101 Life Safety Code to meet JCAHO and CMS requirements.
These occupancies will include health care, ambulatory health care and
business as defined by Joint Commission, CMS and NFPA.
E.
All Projects in occupancies that will provide patient care, and fall under the
jurisdiction of Joint Commission, will be designed to the 2010 FGI
Guidelines for Design and Construction of Health Care Facilities. These
occupancies will include health care, ambulatory health care and business
as defined by Joint Commission, CMS and NFPA.
F.
The Design Kick-Off Checklist that is issued with each project lists all of
the usual rules and regulations that should be followed. This is not to be
construed as a complete listing nor does it release the professional
preparing and/or sealing the documents from complying with regulatory
requirements not noted in this checklist.
01 41 00 Regulatory Requirements
Issued 6/30/04
Revised
10/17/11
Page 1 of 1
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
1.01
Schematic Design Minimum Requirements
A.
The purpose of the Schematic Design is to interpret the program data
provided and produce a design that will satisfy all program requirements.
It also must clarify the program, identify program oversights or excesses,
and generally verify that the proposed program is functionally and fiscally
feasible from an overall Building and Campus perspective. By the end of
the Schematic Design all program issues should not have, or show, any
unassigned spaces (other than shell space not being built out as part of
the project). Any such spaces shown in the original program are
anticipated to have been designated and resolved by the completion of
Schematic Design. In addition, Schematic Design must resolve all breakthrough, phasing and renovation issues associated with the work.
B.
It should be noted that space allocations for infrastructure are a required
basic part of the program. These spaces require vertical walk in shafts for
mechanical and electrical distribution in the facility. In the past, there has
been a proclivity with maximizing net assignable square footage for end
users versus maintaining infrastructure allowances within the overall gross
square footage. This ultimately has had a detrimental effect on the longterm functioning and future flexibility of some facilities. Health Care
Facilities require generous provisions, with built-in allowances for future
growth, for mechanical and electrical systems and equipment. Design
philosophy must recognize this and adjust accordingly in the schematic
development stages of a structure so as to maintain the minimum shaft
and mechanical/electrical spaces programmed for this facility. Any
proposed encroachment of User program square footage, into these
infrastructure spaces must have JLL@BHS approval before proceeding.
C.
The following represents the minimum deliverables required for Schematic
Design review and approval. Submittals that do not meet these
requirements will not be reviewed or approved:
1.
Program Reconciliation must be provided in a tabular format (Excel
Format). This document will list each individual space, including
circulation and shafts, indicating original program square footage,
schematic design square footage, any variance square footage and
a brief narrative description explaining the need for the variance. A
detailed operational narrative with room-by-room descriptions is
also required as an output of Schematic Design.
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 1 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
2.
Specifications in outline format including a narrative and
descriptions of materials, finishes and proposed MEP systems.
Note that the use of variable air volume systems will require a
detailed economic cost evaluation by the A/E. These specifications
shall also include a detailed listing of all applicable codes and any
seismic requirements. Narratives shall include how design will
provide accessibility to utility systems for service, maintenance and
future remodeling.
3.
CADD Requirements: All drawings and electronic files delivered to
JLL@BHS shall follow JLL@BHS CADD Standards.
4.
Integrated Systems Study: Show through various key building
sections how structural, plumbing, fire protection, mechanical and
electrical systems are to be coordinated and layered for physical fit,
installation and accessibility for maintenance.
5.
Site Requirements:
a)
Existing Conditions Civil Survey,
b)
Parking locations,
c)
Site entrance,
d)
New building entrance,
e)
Temporary entrances and site circulation, fencing, roadways,
parking, lighting, signs,
f)
Building foot print,
g)
Demolition,
h)
Existing site utilities,
i)
New site utility requirements,
j)
Walkway locations,
k)
Any future expansion capabilities,
l)
Landscaping demolition,
m)
Roadways and drive,
n)
Storm Water Management criteria,
o)
Proposed location of any new underground utilities.
6.
Building Exterior Envelope:
a)
Elevations of each side of the building addition including
partial elevation of the existing building
b)
Building cross sections
c)
Exterior proposed wall details and sections
d)
Detailed wall sections at each type of window
e)
Roof layout
f)
Elevations and sections of proposed atriums, garden courts,
etc.
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 2 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
7.
Structural:
a)
Structural scheme,
b)
Building frame and sizing of major components,
c)
Description of seismic analysis and methods to be
employed,
d)
Canopy entrance framing,
e)
Shoring requirements,
f)
Stair details,
g)
Special requirements to protect existing structure,
h)
Typical floor framing requirements.
8.
Building Floor Plans:
a)
Floor plans of each floor with column grid designations
drawn at 1/8” of ¼” scale,
b)
Indicate area use and square footage
c)
Locations of vertical infrastructure shafts
d)
Layouts of all spaces including room names
e)
Circulation paths
f)
Layouts of surgical rooms at a larger scale with major items
of equipment shown
g)
Show flexibility for building expansion
h)
All floor plans show at least the two most adjacent bays of
the adjacent building
i)
Full floor plans showing project location and a minimum of
any required building separations, and smoke barriers,
existing and new
j)
Show all service support spaces such as janitors closets,
electrical closets, mechanical shafts, soiled and clean utility
rooms, public and staff toilet rooms
k)
Elevators and elevator equipment rooms
l)
Pneumatic tube station location(s)
m)
Interior partition types
n)
Include major pieces of equipment
o)
Legend of symbols and abbreviations
p)
Indicate what Barrier Free provisions are being provided.
q)
Locate required fire extinguishers. Verify travel distances
are compliant with code.
9.
Plumbing Plans:
a)
Location of all plumbing systems risers,
b)
Using the Facilities CADD one line diagram of all medical
gases systems determine and show proposed points of new
connections to these systems. Provide calculations
indicating the adequacy or inadequacy of existing risers,
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 3 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
c)
d)
e)
f)
g)
All fixtures and their location,
Show suggested routing of all piping mains vertically and
horizontally.
Routing of roof drainage systems.
Location of storm and sanitary pumps.
Location of roof overflow outlets at grade. Specific care
should be taken to locate these so that they do not flow
across pedestrian walks and paths.
10.
HVAC Plans:
a)
Mechanical Room plans showing major pieces of equipment
such as air handlers, converters, pumps, condensate lift
stations, etc.
b)
Block Load calculations including dew point calculations for
all window types
c)
Main duct risers & proposed routing of duct mains on the
floor,
d)
One line flow diagrams all systems such as ventilation air,
chilled water, heating hot water, steam and condensate,
e)
Air intake and discharge locations.
f)
Perimeter heating systems indicating where radiant panels
and finned tube will be used.
g)
Preliminary sections in mechanical rooms,
h)
Mechanical legend of symbols and abbreviations,
i)
Statement of design intent including winter and summer
design conditions.
j)
Investigation of diesel exhaust plume and air intakes
(existing and new)
11.
Electrical Plans:
a)
Tabulation of lighting source proposed, and required footcandles, per type of area
b)
Fixture types per established JLL@BHS Standard
c)
Electrical equipment room plans showing location of all
major pieces of equipment
d)
Investigation of existing normal and emergency power
system to determine spare capacity
e)
One line diagrams of normal and emergency power
distribution systems and how the new work will integrate with
the existing Campus and building distribution systems
f)
Electrical closet locations
g)
Electrical legend of symbols and abbreviations, coordinated
with JLL@BHS CADD Standards, Data/Communicationsdetermine, and indicate point of origin
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 4 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
h)
i)
j)
k)
l)
m)
1.02
Estimated load calculations for normal and emergency
power
Details of emergency generator location
Fire Command Center location
Plan for redundant emergency supply to OR’s
Identification of special electrical components and their
location: UPS, TVSS, harmonic filters, power factor
correction capacitors.
Interview users for specific UPS, data, communication and
emergency power requirements.
Design Development Minimum Requirements
A.
Design Development should not proceed until the JLL@BHS Project
manager has provided formal approval. This approval will not be given
until all Schematic Design review comments have been responded to by
the A/E. At the completion of Schematic Design all program space
relationships, adjacencies, and square footage requirements are viewed
as fixed and only minor programmatic revisions will be allowed. The
JLL@BHS Project Manager must approve, in writing, any requested
revisions that have a cost/budget or schedule impact before proceeding.
B.
A properly prepared set of Design Development documents should
resolve all major conflicts and interference’s between disciplines and
various trades work. To this end it is anticipated that the documents
submitted for review in Design Development will represent approximately
60% completed Construction Documents. Plans and specifications for
sitework, foundation, structure, and shell will be 100% complete at this
time for early bid packages. Specifications for major long lead equipment
such as elevators, air handling units, emergency generators, electrical
substations, switch gear and paralleling gear will be 100% complete for a
possible early bid package.
C.
The following represents the minimum deliverables required for Design
Development review and approval. It is the Architect/Engineer’s
responsibility to meet these requirements within the time frames published
in the project’s schedule. Submittals that do not meet these requirements
will not be reviewed or approved and will be required to be re-submitted
with all required information within the project scheduled time frames.
Schedule extensions for incomplete submittals will not be granted.
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 5 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
1.
Program Reconciliation must be provided in a tabular format (Excel
Format). This document will list each individual space or room
(including circulation and shafts) indicating original program square
footage, schematic design, square footage, any variance square
footage with a brief narrative description explaining the need for the
variance that occurred in Design Development. A revised
operational narrative should also be included.
2.
Specifications shall be representative of the final construction
specification to the extent that they shall relay full design intent
establishing levels of materials quality, criteria for installation of
material and systems. Equipment specifications shall be
reasonably complete.
3.
Clarifications: Submit a written narrative indicating areas or details
that the A/E would like to receive clarification or direction on how to
proceed.
4.
Equipment Planning: All equipment planning shall be complete with
detailed room by room descriptions listing all
5.
CADD Requirements: All drawings and electronic files delivered to
JLL@BHS shall follow JLL@BHS CADD Standards.
6.
Site and Civil Work: 100% complete for early bid packages. It
should be understood that if early bid packages for this work are to
be issued before Design Development then the requirements that
follow are to be submitted with the Schematic Design Review
Package.
a)
Completed survey of the existing site showing all existing
conditions, underground utilities and easements.
b)
All site drawings shall be drawn at a scale of 1”=30’-0”
c)
Site Drawing showing demolition
d)
Site Drawing showing all new utility work with all utilities that
are to be demolished removed from this drawing. Only
those existing utilities that are to remain and new utility work
are to be shown
e)
Site Drawings with all new grading requirements, roadways,
and drives, walkways etc.
f)
Temporary entrances and canopies
g)
Site storm water drainage requirements with calculations
h)
Building foot print
i)
In process Landscaping plans showing planting layout,
landscape lighting and proposed irrigation plan
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 6 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
7.
Building Exterior Envelope
a)
Fully detailed and dimensioned elevations of each side of
the building. These drawings shall indicate all future
expansion capabilities.
b)
Completed Building Sections
c)
Full Details and sections of all window types
d)
Large scale canopy entrance plan and associated details
e)
Fully detailed exterior wall sections, particular attention
should be given to waterproofing, vapor barriers, and
insulation
f)
Roof plan showing all roof mounted equipment and roof
penetrations.
8.
Structural
a)
Fully detailed plans of building frame and structure
b)
Clear description of seismic requirements
c)
Shoring requirements full detailed.
d)
Canopy entrance framing
e)
Floor framing requirements
f)
Structural details at all breakthroughs into the existing
buildings.
g)
Foundations drainage requirements
h)
Completed stair details
i)
All miscellaneous steel requirements
j)
Design Loads
k)
Special framing requirements for infrastructure shafts and
grating
l)
Show all detailing with respect to future expansion
capabilities
m)
Column grid designations
9.
Building Floor Plans
a)
Cover Sheet
b)
Drawing List
c)
Composite of Fire and Smoke zones complete with locations
of all rated walls
d)
¼” scale plans of each floor with column grid designations
e)
Include all room names and Facilitech System Room
numbers
f)
Interior room dimensions
g)
Large scale plans and details including special finishes in
public areas
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 7 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
h)
i)
j)
k)
l)
m)
n)
o)
p)
q)
r)
s)
t)
u)
v)
w)
x)
Large scale detailed plans of operating rooms, patient rooms
and support spaces
Equipment and furniture layouts.
Show millwork
Interior wall elevations showing placement of medical gas
and electrical outlets
Millwork elevations and details
Door Schedule
Door frame types and details
Room Finish schedule
Reflected ceiling plans with all devices such as sprinkler
heads, lighting, exit signs, and fire alarm devices.
Partition types and details
Fire ratings of walls and smoke zones
Elevator details and finishes
Plans and details of areas to be remodeled in the existing
building
Access to roofs
Expansion joint details and locations
Miscellaneous supports systems for ceiling mounted
equipment
Show locations of fire extinguishers.
10.
Plumbing Plans
a)
Revised and updated one line diagrams of medical gas
systems including revised final calculations
b)
Riser diagrams of domestic hot and cold water
c)
Riser diagrams of waste and vent systems with fixture
counts
d)
Floor plans with all plumbing systems laid out
e)
Completed roof and under ground drainage systems
f)
All fixtures and their locations
g)
Domestic hot water heating equipment
h)
Piping schematic diagrams
i)
Storm and Sanitary Sump Pump Details
j)
Location of medical gas alarms and zone valves.
k)
Location of roof overflow outlets at grade
11.
HVAC Plans
a)
Mechanical Room Plans with all equipment and piping
shown
b)
Updated and revised load calculations including finalized
dew point calculations
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 8 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
c)
d)
e)
f)
g)
h)
i)
j)
k)
l)
m)
n)
o)
p)
q)
r)
s)
t)
u)
v)
Air handling unit duct riser diagrams with all required
dampers and cfm requirements at each floor branch main
takeoff
Floor plans with duct layouts and terminal devices. Indicate
on plans with screen symbolism areas beneath ductwork
that are to be kept free of all other utilities in order to
maintain access to fire/smoke dampers, valves, etc.
HVAC piping plans
Pneumatic tube system piping plans
Perimeter heating plans with piping for radiant ceiling panels
and finned tube radiation
Updated statement of design intent
Detailed sections of mechanical room
Large scale plans of mechanical shafts at each floor
One line flow diagrams of chilled water, heating hot water,
steam and condensate
Temperature control diagrams with sequence of operation
and detailed points listing
Duct details
Fire/smoke/combination damper details
Equipment schedules with clear delineation of present and
future capacity requirements
Steam PRV location and details
All equipment details
Demonstrate with composite sections that HVAC, plumbing,
fire protection and electrical disciplines are coordinated for
physical fit, service and accessibility for maintenance.
Show location of all duct-balancing dampers on plans.
Standard details or notes will not be acceptable
Show on plans the location of all required piping balancing
valves for all HVAC piping diagrams
Show locations of temperature control panels and VFD’s
Show wall ratings on base plans for HVAC to verify fire and
smoke damper locations.
12.
Fire Protection
a)
Floor plans with layouts of all sprinkler piping and head
locations with preliminary hydraulic calculations
13.
Electrical Plans
a)
Lighting plan of all floors
b)
Light level calculations
c)
Fixture switching/layout
d)
Electrical equipment plans and details
01 42 00 Design Documents Information Requirements Issued 6/30/04 Revised 10/17/11 Page 9 of 20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
e)
f)
g)
h)
i)
j)
k)
l)
m)
n)
o)
p)
q)
r)
s)
t)
u)
v)
1.03
All distribution, lighting and receptacle panel locations with
designations as determined by JLL@BHS Facilities
Management
Power and signal floor plans showing locations of receptacle
and data/communications outlets
Site electrical plans-underground conduit/ducts, lighting,
signs, security, gates and illuminated signs
Communication riser diagrams
Normal and Emergency power riser diagrams
Normal and Emergency power one line diagrams
Panelboard schedules, including present and future load
capacities
Fire alarm floor plans showing locations of required devices
MCC locations and details of equipment served
Fire alarm riser diagram
Nurse call system layout
Paging and music systems
Control Diagrams
Show main conduit runs for all conduits 2” and larger
Lighting fixture schedule
Show wall ratings on fire alarm plans
Show special electrical components and their location: UPS,
TVSS, harmonic filters, power factor correction capacitors.
Verify users specific UPS, data, communication and
emergency power requirements and show the system
locations.
Minimum Construction Drawings and Specification Requirements:
A.
Jones Lang LaSalle @ Beaumont Health System sets high standards and
goals not only for itself but also for the consultants and contractors it
employs. Our Client, Beaumont Health System, is a Health Industry
Leader in providing the highest possible quality Health Care Services to its
patients. One of the many ways this is accomplished is by constructing
high quality facilities. The Essence of the Jones Lang LaSalle @
Beaumont Health System is to provide “Excellence in Environments that
Help to Heal” and with this in mind JLL@BHS sets high standards of
quality, goals and expectations. One of these expectations is that final
construction documents prepared by the A/E of Record are to be well
executed, highly detailed and complete in every way. A goal that follows
from this expectation is a difficult one. We as a team need to strive to
produce a set of construction documents that will reduce, if not eliminate,
the issuance of any bulletins to correct errors and omissions after bids are
received and contracts have been awarded. It is further recognized that
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20
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
we are all human and that errors will occur, but our goal, as a team is to
strive and extend our collective abilities to reduce the number of bulletins
to zero. Bulletins are expensive and make budget management extremely
difficult. The budget for this project is fixed and it is the project team’s
responsibility to meet this budget without sacrificing the quality of the
facility to be constructed.
B.
In preparing the construction documents the A/E needs to consider the
above and what internal quality control changes will be required. When
submitting final construction documents for review the A/E must consider
that they are to be 100% complete (bid Ready) in all respects.
Completeness and thoroughness of the documents are critical to the
success of this project. Construction documents will be critically reviewed
by JLL@BHS. Documents that are incomplete, or poorly coordinated, will
be returned to the A/E until they are deemed ready for review and bidding.
There will be no schedule extensions given for submittal of documents
that are incomplete or poorly coordinated bid documents.
C.
The following represents the minimum deliverables required for Final
Construction Documents:
1.
Previous review Comment Response; the A/E shall include a
complete written response to all JLL@BHS Design Development
review comments. The A/E shall include and indicate any areas or
details that vary from Design Development and may require further
clarification.
2.
Program Reconciliation must be provided in a tabular format (Excel
Format). This document will list each individual space or room
(including circulation and shafts) indicating original program square
footage, Schematic Design, square footage, Design Development
Square footage, any variance square footage with a brief narrative
description explaining the need for the variance that occurred in
preparation of Final Construction Documents. A revised and final
operational narrative should also be included.
3.
Specifications; .all specifications are to be 100% complete and shall
include (for reference & coordination) all specification sections that
were issued with earlier bid packages. Equipment, manufactures
and model number shall not vary or be changed from those
approved in Design Development.
4.
Equipment Planning; include all complete room data sheets.
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5.
CADD requirements; include a CD of all drawing files of bid
documents including specifications.
6.
Site and Civil Work: 100% complete. It is understood that if early
bid packages for this work are to be issued before Final CD Review
then the requirements that follow are to be submitted with the
Design Development Review Package.
a)
Completed survey of the existing site showing all existing
conditions, underground utilities and easements.
b)
All site drawings shall be drawn at a scale of 1”=30’-0”
c)
Site Drawing showing all necessary demolition
d)
Site Drawing showing all new utility work with all utilities that
are to be demolished removed from this drawing. Only
those existing utilities that are to remain and new utility work
are to be shown. All underground utilities are to be clearly
labeled complete with sizes of piping and conduits.
e)
Site Drawings with all new grading requirements, roadways,
and drives, walkways etc.
f)
Site drawings are to be clearly defined showing details of
curbing, expansion joints in roadways & sidewalks, manhole
details, piping details, etc.
g)
Site storm water drainage requirements complete with
calculations and drawings
h)
Building foot print
i)
100% complete Landscaping plans showing planting layout,
landscape lighting, irrigation plan, guying details, existing
tree protection, planting details and soil preparation
specifications.
j)
Coordinated site signage plan and any special requirements.
7.
Building Exterior Envelope
a)
Fully detailed and dimensioned elevations of each side of
the building. These drawings shall indicate all future
expansion capabilities.
b)
Completed Building Sections
c)
Full Details and sections of all window types detailing
flashing, waterproofing, insulation and caulking requirements
at sills heads and jambs
d)
Large scale canopy entrance plan and associated details of
all building entrances
e)
Fully detailed exterior wall sections, particular attention
should be given to waterproofing, vapor barriers, and
insulation
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SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
f)
g)
h)
i)
j)
Roof plan showing all roof mounted equipment and roof
penetrations.
Roofing installation details including curbs, flashing
requirements, etc.
Exterior door details
Typical exterior wall sections with clear indication installation
of insulation and vapor barriers
Building Elevations should show any planned exterior
signage to be mounted on the building.
8.
Structural
a)
Fully detailed plans of building frame and structure
b)
Clear description of seismic requirements
c)
Shoring requirements full detailed on drawings
d)
Canopy entrance framing
e)
Floor framing requirements
f)
Structural details at all breakthroughs into the existing
buildings.
g)
Beam and Column schedules
h)
Foundation details
i)
Floor loading design load requirements clearly defined
j)
Foundations drainage requirements and lower level, under
slab drainage
k)
Completed stair details
l)
All miscellaneous steel requirements
m)
Design Loads
n)
Special framing requirements for infrastructure shafts and
grating
o)
Show all detailing with respect to future expansion
capabilities
p)
Column grid designations
q)
If concrete structural systems are used show on plan, and
fully detail, all embedded items such as Unistrut to facilitate
installation of MEP systems and other equipment
9.
Building Floor Plans
a)
Cover Sheet
b)
Drawing List
c)
Composite of Fire and Smoke zones complete with locations
of all rated walls
d)
¼” scale plans of each floor with column grid designations
e)
Include all room names and Facilitech System Room
numbers
f)
Interior room dimensions
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g)
h)
i)
j)
k)
l)
m)
n)
o)
p)
q)
r)
s)
t)
u)
v)
w)
x)
y)
z)
10.
Large scale plans and details including special finishes in
public areas
Large scale detailed plans of operating rooms, patient rooms
and support spaces
Equipment and furniture layouts.
Show millwork
Interior wall elevations showing placement of medical gas
and electrical outlets
Millwork elevations and details
Door and hardware schedules
Door frame types and details
Room Finish schedules
Reflected ceiling plans showing and coordinating all devices
such as sprinkler heads, lighting, exit signs, and fire alarm
devices.
Partition types and details
Fire ratings of walls and smoke zones
Fire stopping details both typical and special
Elevator details, finishes and lighting
Plans and details of areas to be remodeled in the existing
building
Access to roofs and associated details
Expansion joint details and locations
Miscellaneous supports systems for ceiling mounted
equipment
Detailed large scale plans with elevations and construction
details of all public spaces such as waiting rooms and
lobbies with special interior design detail is used.
Show fire extinguisher locations. Do a final verification that
the travel distances are compliant with code.
Plumbing Plans
a)
Revised and updated one line diagrams of medical gas
systems including revised final calculations and cfm
requirements shown on riser diagram
b)
Riser diagrams of domestic hot and cold water
c)
Riser diagrams of waste and vent systems with fixture
counts
d)
Floor plans with all plumbing systems laid out
e)
Completed roof and under ground drainage systems
f)
All fixtures and their locations
g)
Domestic hot water heating equipment
h)
Piping schematic diagrams and equipment connection
details
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SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
i)
j)
k)
l)
11.
Storm and Sanitary Sump Pump Details
Medical gas piping floor plans
Location of medical gas alarms and zone valves.
Location of roof overflow outlets at grade.
HVAC Plans
a)
Mechanical Room Plans with all equipment, ductwork and
piping shown. Plans shall include all permanent
scaffolding/platforms that may be required to meet OSHA &
MiOSHA safety maintenance accessibility for equipment
mounted in inaccessible locations. Plans shall demonstrate
those service isles are maintained for service and equipment
replacement. In this regard particular attention shall be
given to smoke detectors. Access to mechanical rooms for
equipment replacement through exterior louvers shall be
maintained.
b)
Provide detailed coordinated sections through mechanical
rooms showing equipment, ductwork, HVAC piping,
plumbing piping and all conduit to demonstrate a fully
coordinated design.
c)
Updated and revised HVAC load calculations including
finalized dew point calculations
d)
Air handling unit duct riser diagrams with all required
dampers and cfm requirements (both present and future cfm
are to be shown) at each floor branch to main takeoff. Riser
diagrams shall indicate AHU designation.
e)
Floor plans with duct layouts and terminal devices. Indicate
on plans with screen symbolism areas beneath ductwork
that are to be kept free of all other utilities in order to
maintain access to fire/smoke dampers, valves, etc.
f)
HVAC piping plans with all piping clearly labeled, all pipe
sizes shown and with flow direction indicated. Plan shall
clearly indicate the location of all service balancing and
isolation valves. Show isolation/balancing valves at all riser
to floor branch mains indicating floor design gpm
requirements. Show isolation valve at all branch main
takeoffs. Standard details for reheat coils will be acceptable.
g)
Include HVAC piping riser diagrams chilled water, heating
hot water, steam and condensate indicating gpm flow and/or
lbs. per hour of steam requirements at each floor branch
takeoff.
h)
Perimeter heating plans with piping for radiant ceiling panels
and finned tube radiation. Indicate all required valves on
plan.
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i)
j)
k)
l)
m)
n)
o)
p)
q)
r)
s)
t)
u)
v)
w)
x)
y)
12.
Updated statement of design intent
Large scale plans of mechanical shafts at each floor showing
all ductwork and piping
Detailed temperature control diagrams with sequence of
operation and detailed points listing all shown on the
drawings. Sequences of operation in specifications will not
be acceptable
Smoke purge control strategy
Mechanical piping details and diagrams of all equipment
Duct details
Fire/smoke/combination damper installation details
Equipment schedules with clear delineation of present and
future capacity requirements
Steam PRV location and details
All equipment details
Demonstrate with composite sections that HVAC, plumbing,
fire protection and electrical disciplines are coordinated for
physical fit, service and accessibility for maintenance.
Show location of all duct-balancing dampers on plans.
Standard details or notes will not be acceptable
Show on plans the location of all required piping balancing
valves for all HVAC piping diagrams
Converter equipment details and piping schematic diagrams
Show locations of temperature control panels and VFD’s
Show all required seismic bracing requirements for
Mechanical Systems.
Show wall ratings on HVAC plans to verify locations of
smoke and fire dampers
Fire Protection
a)
Floor plans with layouts of all sprinkler piping and head
locations with design hydraulic calculations.
b)
Show all pipe hangers and required seismic bracing
requirements
c)
Show all hydraulic calculation nodes
d)
Provide details and sequence of operation for pre-action
system
e)
Include a plan of the Building’s existing fire pump loop and
points of new connection
f)
Plans shall indicate the type, model number and quantity of
each sprinkler head
g)
Fire protection drawing shall show all fire rated walls and
smoke partitions
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h)
i)
13.
All drain down solutions for the system shall show a location
to the outside of the building that does not impact pedestrian
and vehicular traffic or to a hard piped drain location.
See JLL@BHS Standard Section 21 10 00 for additional
requirements.
Electrical Plans
a)
Lighting plan of all floors
b)
Light level calculations
c)
Fixture switching/layout
d)
Electrical equipment plans and details
e)
All distribution, lighting and receptacle panel locations with
designations as determined by JLL@BHs TIG
f)
Power and signal floor plans showing locations of receptacle
and data/communications outlets
g)
Site electrical plans-underground conduit/ducts, lighting,
signs, security, gates and illuminated signs
h)
Communication riser diagrams
i)
Normal and Emergency power riser diagrams
j)
Normal and Emergency power one line diagrams
k)
Panelboard schedules, including present and future load
capacities
l)
Fire alarm floor plans showing locations of required devices
m)
MCC locations and details of equipment served
n)
Fire alarm riser diagram
o)
Nurse call system layout
p)
Paging and music systems
q)
Control Diagrams
r)
Show main conduit runs for all conduits 2” and larger
s)
Emergency generator details
t)
Lighting fixture schedule
u)
Show wall ratings on the fire alarm plans for reference.
v)
Special electrical components and their locations: UPS,
TVSS, harmonic filters, power factor correction capacitors.
w)
Show users specific UPS, data, communication and
emergency power requirements and the system locations.
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DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
1.04
1.05
Final Design Documents:
A.
At project completion and occupancy, the Architect/Engineer will provide
the final design documents (project specifications and drawings) in both
electronic (PDF & AutoCAD) and bond paper copy (1 each). These final
design documents will include all addendum’s, responses to RFI’s and any
bulletins that resulted in a drawing or specification change that occurred
from the issue of the construction documents for bids through to the
completion and occupancy of the project.
B.
At project completion and occupancy, the General Contractor will provide
the as-builts in both electronic (AutoCAD) and bond paper copy (1 each).
In addition one copy of all closeout documentation including guarantees,
MSDS, permits & Certificates of Occupancy from all Authorities Having
Jurisdiction (Building, Bureau of Fire Services, Health Facilities
Engineering Section, etc.), testing reports, shop drawings & submittals,
O&M, etc. will be provided as applicable to each project.
Construction Document Information
A.
Information
1.
Cover Sheet:
a)
Building Name / Site Location
b)
Floor and Tower
c)
Department or Suite Name
d)
Project name
e)
JLL@BHS Project Number
f)
JLL@BHS Project Manager
g)
Bureau of Fire Services Project Number
h)
Health Facilities Engineering Section Project Number
i)
Certificate of Need Number (C of N No.) if required.
j)
Site Plan locating project.
k)
A/E Consultant's Company Name and Address
l)
Sub-Consultant's Company Names and Addresses
m)
Construction Management Company Name and Address
n)
Sheet Index
o)
Package Name (Program, Schematic, Design Development,
Construction, Addendum, Bulletin, etc.)
p)
Issue Date
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DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
B.
Full Floor Locator Plan / Life Safety Floor Plan
1.
For Hospital Projects:
a)
This can be a combined plan showing the project location
and, at the minimum, the floor's smoke barriers and the 2hour building separations for the floor. Included on this plan,
the general department/suite locations should be identified
for the related adjacencies for the project.
C.
For Non-Hospital Projects:
1.
A full Floor Locator Plan can be used as a Key Plan on each sheet
of as a Floor Locator Plan on the Cover Sheet. Department / Suite
locations are only required if they add clarity to the location of the
project.
D.
Floor Plans
1.
All floor plans, existing/demolition, remodeled, architectural,
mechanical, plumbing, electrical, interiors, equipment, etc., must
have room names and room numbers shown. This can be either
the room name and number shown in each room, or the room
number in the room with a corresponding room name listing on
each sheet.
E.
2.
The room numbers will be from Beaumont's established room
numbering system as provided by JLL@BHS' Planning and
Technical Information Services. The door and opening numbers
will be established from the room numbers so that we can tie them
back to our database as used by our Facilities Management groups
for reference.
3
All floor and equipment plans shall be 1/4" scale and show column
numbers and column lines for locational reference.
4
Locations of temporary, construction partitions and temporary
system support should be shown on the documents.
Ceiling Plans
1.
Show all wall rating information, new and existing. JLL@BHS
should provide the required wall rating symbol designations.
2.
Show a completely integrated ceiling system. Including all
systems, i.e. lights, sprinklers, speakers, diffuses, grilles returns,
exit signs, smoke detectors, etc.
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DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 42 00 – DESIGN DOCUMENTS INFORMATION REQUIREMENTS
F.
Demolition Plans
1.
The type of systems and their construction should be identified and
noted on the demolition plans.
G.
Regulatory Requirements:
1.
All codes, rules, regulations, guidelines, requirements, etc., which
are used or referenced in the preparation of documents, and/or are
required to be complied with by the Agencies Having Jurisdiction,
shall be listed on or in the project documents. The years and
editions of these shall be accurately noted in reference to the time
frame of the project.
H.
Included in this section will also be the following information:
1.
Building Occupancy Classification
2.
Building Construction Type
3.
Building Elements Lists including the hour ratings and assembly
designation
4.
Building Seismic Criteria and Classification
5.
Finish Material Ratings
I.
Also included within this section, for record and future reference, should
be any granted Federal, State and/or City variances.
J.
All health care projects that fall under the jurisdiction of The Centers for
Medicare and Medicaid Services (CMS) and/or The Joint Commission
shall be designed to the 2000 Edition of the National Fire Protection
Association 101 Life Safety Code.
K.
All health care projects that fall under the jurisdiction of The Joint
Commission Shall be designed to the 2010 Edition of the Facility
Guidelines Institute (FGI) Guidelines for the Design and Construction of
Health Care Facilities
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DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 91 00 - GENERAL COMMISSIONING REQUIREMENTS
1.01
1.02
Description
A.
Commissioning is a systematic process of ensuring that all building
systems perform interactively according to the design intent and the
owner’s operational needs. This is achieved by beginning in the
design phase and documenting design intent and continuing through
construction, acceptance and the warranty period with actual
verification of performance.
B.
The commissioning process shall encompass and coordinate the
traditionally separate functions of system documentation, equipment
startup, control system calibration, testing and balancing, performance
testing and training.
C.
Commissioning during the construction phase is intended to achieve
the following specific objectives according to the Contract Documents:
1)
Verify that applicable equipment and systems are installed
according to the manufacturer’s recommendations and to
industry accepted minimum standards and that they receive
adequate operational checkout by installing contractors.
2)
Verify and document proper performance of equipment and
systems.
3)
Verify that O&M documentation left on site is complete.
4)
Verify that the Owner’s operating personnel have received the
required training.
D.
The commissioning process does not take away from or reduce the
responsibility of the system designers or installing contractors to
provide a finished and fully functioning system.
E.
The JLL@BHS Commissioning Steps process will be used as a guide
for developing a commissioning plan.
Coordination
A.
The Construction Commissioning Team will include Contractors,
Subcontractors, and Equipment Manufacturers Representatives along
with the System Designer, Engineer of Record, JLL@BHS Resident
Engineer, JLL@BHS Facility Operations Staff, JLL@BHS Project
Manager, Beaumont Fire Safety, and JLL@BHS Consultants. The
entire team will participate in the development of a plan and schedule
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Revised 10/17/11
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SECTION 01 91 00 - GENERAL COMMISSIONING REQUIREMENTS
for the testing, start-up, and training for all new equipment building
systems and infrastructure. This plan will be specific to the project.
1.03
B.
All requirements for warrantees, testing, start-up, and training will be in
the contract documents. The Commissioning Team in Step 2 of the
JLL@BHS Commissioning Steps Process determined these
requirements.
C.
The general contractor, construction manager or design/builder will
integrate all commissioning activities into the master schedule. All
Commissioning Team members will address any scheduling problems
and make the necessary notifications in a timely manner to the general
contractor, construction manager or design/builder in order to expedite
the commissioning.
Commissioning Process
A.
The commissioning plan provides guidance in the execution of the
commissioning process. Just after the initial commissioning team
meetings the JLL@BHS Project Manager will distribute to all the team
members an updated plan which includes all their input. This will be
considered the project’s “final” plan, though it will continue to evolve
and expand as the project progresses.
B.
The following narrative provides a brief overview of the typical
commissioning tasks as the project proceeds and the general order in
which they occur.
1)
Commissioning during construction begins with an initial
meeting conducted by the JLL@BHS Project Manager where
the commissioning process is reviewed with the commissioning
team members.
2)
Additional meetings will be required throughout construction.
See project schedule.
3)
Equipment documentation is submitted during normal
submittals, including detailed start-up procedures.
4)
The JLL@BHS Commissioning Team works with the contractors
in developing startup plans and startup documentation formats.
5)
In general, the checkout and performance verification proceeds
from simple to complex; from component level to equipment to
systems and intersystem levels with pre-functional checklists
being completed before functional testing.
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Revised 10/17/11
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SECTION 01 91 00 - GENERAL COMMISSIONING REQUIREMENTS
6)
The contractors will execute and document the pre-functional
checklists and performs startup and initial checkout. The
JLL@BHS Commissioning Team documents that the checklists
and startup were completed according to the approved plans.
This may include the JLL@BHS Commissioning Team
witnessing start-up of selected equipment.
7)
The contractor develops specific equipment and system
functional performance test procedures that are approved by the
Commissioning Team.
8)
The procedures are executed by the contractor, under the
direction of, and documented by the JLL@BHS Commissioning
Team.
9)
Items of non-compliance in material, installation or setup are
corrected at the contractor’s expense and the system re-tested.
10)
The JLL@BHS Commissioning Team reviews the O&M
documentation for completeness.
11)
Commissioning is completed before Substantial Completion.
12)
The JLL@BHS Commissioning Team reviews, pre-approves
and coordinates the training provided by the contractor and
verifies that it was completed.
13)
Deferred testing is conducted, as specified or required.
C.
The cost of all testing, start-up, and training will be the responsibility of
the contractors. This will include any testing equipment and re-testing
necessary. The cost of the manufacturer’s representation for testing
and training will the responsibility of the contractor. The number of
hours along with the cost will be a separate line item in the bid. The
cost of re-testing plus any costs incurred by other contractors for
delays caused by the re-testing will be the responsibility of the
contractor if the deficiency is theirs. If the contractor is not responsible
the re-testing costs shall be negotiated with the JLL@BHS Project
Manager.
D.
In addition to all required submittal data for approval of the equipment,
O & M Manuals, and warrantee information, the contractor will be
required to provide documentation on all testing, start-up, and training
activities. This documentation will include but is not limited to:
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Revised 10/17/11
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DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 91 00 - GENERAL COMMISSIONING REQUIREMENTS
1)
2)
Installation, Start-up, and Check-out materials shipped with the
equipment
Factory or Field Check-out forms used by factory or field
technicians
3)
Pre-functional and Functional Test Procedures and Check Lists
4)
Start-up and System Operational Procedures and Check Lists
5)
Sequences of Operation, Control Drawings, Annotated PLC
Ladder Logic printouts, or other equipment documentation.
6)
Training Manuals
7)
Re-testing of all deficiencies or non-conformance issues
E.
All forms and checklists will be developed by the contractor or
subcontractor and will be specific to the equipment on this project. The
JLL@BHS Commissioning Team will approve forms and checklists.
F.
Contractors will also be required to provide equipment data such as
product numbers, make, model, location, serial numbers, and warranty
information that is needed for the JLL@BHS equipment management
system and warranty administration. The form used to document this
information is included with this specification. This information will need
to be provided before testing and training begins.
G.
All testing, start-up, and training will be scheduled in the Contractor’s
Master CPM Schedule. Seasonal testing and deferred testing will also
become part of this contract. Seasonal tests will be delayed until
weather conditions are closest to the system’s design. Deferred tests
due to the building structure, required occupancy phasing, or other
deficiencies will be completed as soon as possible. Seasonal and
deferred testing will follow the same procedures, be witnessed by the
same personnel, and require the same documentation. A portion of
Construction, Manager, Design/Builder, General or Subcontractor fees
can be withheld until all testing is complete.
H.
Functional performance testing and verification may be achieved by
manual testing or monitoring the performance and analyzing the
results using the control system’s trend log capabilities. Simulating
conditions may be allowed, though timing the testing to experience
actual conditions is encouraged wherever practical. Each function and
test shall be performed under conditions that simulate actual conditions
as close, as is practically possible. The contractor executing the test
shall provide all necessary materials, system modifications, etc. to
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Revised 10/17/11
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produce the necessary flows, pressures, temperatures, etc. necessary
to execute the test according to the specified conditions. At completion
of the test the contractor shall return all affected building equipment
and systems to their pre-test condition.
I.
The Engineer of Record, JLL@BHS Resident Engineer, and
JLL@BHS Facility Operations Staff will be present at all Functional
Tests and Start-up activities. The JLL@BHS Facility Operations Staff
will designate the personnel to be present at the training sessions. All
pre-functional and pre-start-up activities will be documented by the
mechanical / electrical contractor and given to the JLL@BHS Project
Manager before arrangements are made for the functional tests and
start-up. At least 7 working days notice is needed.
J.
The contractor will submit at project closeout with the as-built
drawings, a document verifying the following:
K.
1)
Systems were tested and function per design intent
2)
Systems were installed per manufacturers recommendations
and to industry accepted minimum standards
3)
Systems received adequate operational check-out by installing
contractors
4)
Proper performance of equipment and systems was
documented and given to the Owner.
5)
O & M Manuals and as-built drawings are complete and
accurate.
6)
Training has been provided or funding for training has been
provided for Owner’s operating personnel.
The Engineer of Record, JLL@BHS Resident Engineer, and
JLL@BHS Facility Management Staff will review and approve this
document.
01 91 00 General Commissioning Requirements
Issued 6/30/04
Revised 10/17/11
Page 5 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 91 01 - COMMISSIONING STEPS
1.1 COMMISSIONING STEPS
Commissioning at Jones Lang LaSalle @ Beaumont Health System is a joint effort between Real Estate
Development & Planning, Operations, and Engineering Support. Its purpose is to ensure that all hospital
infrastructure, building systems and equipment are designed, installed, and operated correctly with proper
operation and maintenance training, documentation, and quality control. Commissioning is a life cycle activity
that starts at the beginning of design and carries on through the life of the project and, ultimately, the
equipment.
The Commissioning Team Leader is the Project Manager. They are ultimately responsible for completing the
commissioning activities during design, construction/installation, and project closeout. They also brings the
proper resources to the project at the appropriate time and act as a resource to Operations after the Project is
complete.
The Core Team Members are the Project Manager, Operations, the Resident Architect, the Resident Mechanical
Engineer, the Resident Electrical Engineer, the Construction Manager, and the Technical Information Group.
Team members listed below are in addition to the Core Team Members.
Step No.
1
2
Commissioning Activity
Project Phase
Develop Project Commissioning
Goals and Objectives:
 Review Project Scope
 Review Design Intent
 Review User Expectations
 Review Maintainer
Expectations
Develop Commissioning Scope
 Establish levels of Review
 Determine Agency Reviews &
Submissions
 Determine Systems Testing
Coordination Requirements
 Determine Warrantee
Requirements and
Planning/Programming
01 91 01 Commissioning Steps
Planning/Programming
Issued 6/30/04
Additional Team
Members
A/E, CM, Planner,
Programmer, Infection
Control, Beaumont
Safety, Beaumont Fire
Safety
Deliverables/Expectations
A/E, CM, Beaumont Fire
Safety, Infection Control
1. Commissioning Responsibility Matrix
2. Commissioning Scope Statement
Revised 10/17/11
1. Project Scope Delivered to Client and
Commissioning Team
2. Commissioning Goals & Objective
Statement
Page 1 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 91 01 - COMMISSIONING STEPS
Step No.
3
4
Administration
Commissioning Activity
Review Commissioning Scope
as Applicable to Standards
 Determines which AMEP
systems and equipment need
to be commissioned
 Value Engineering
 Life Cycle Cost Analysis
 Lessons Learned Review
Incorporate Commissioning
Concerns during drawing and
specification development
 Confirm system goals are
being incorporated into
drawings and specs
 Develop consensus on
systems design
 Review standards and
possible change
 Define shop drawing and asbuilt requirements
 Determine required testing
 Determines levels of testing:
manufacturer, contractor,
testing agency
 Define testing and forms
 Determine required submittals
 Define submittals and forms
 Determine required training
 Define training and forms
 Determine required operations
manuals
 Determine required
documentation
 Assign responsibilities
01 91 01 Commissioning Steps
Project Phase
Additional Team
Members
Deliverables/Expectations
Planning/Programming
A/E, CM
1. Commissioning Specification
2. Testing and Training Requirements
defined.
Design
A/E, CM
1. Commissioning Check List Completed
by Facility Services & Tech Services
2. Responsibility Matrix
Issued 6/30/04
Revised 10/17/11
Page 2 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 91 01 - COMMISSIONING STEPS
Step No.
5
6
7
Commissioning Activity
Project Phase
Develop Commissioning
Schedule in conjunction with
Construction Schedule
 Utility tie-ins
 Rough wall inspections
 Documentation & Photos
 Systems and equipment
accessibility meetings
 Quality control meetings
 Pre-functional tests
 Functional Tests
 Project Close-out
 AHJ inspections
Project Commissioning Close
Out Development
 Edit Project Close-Out Check
List to meet needs of Project
 Develop pre-functional and
functional test forms specific to
project
 Develop training forms specific
to project
 Confirm as-built drawing
requirements
MEP System Change Validation
 Joint consultation and decision
by all team members
 All changes to Standards
reviewed and approved by
Standards Committee
 All Changes Documented
 Bulletins/RFI’s issued and
distributed
 Record Drawings Received
Pre-Construction
01 91 01 Commissioning Steps
Additional Team
Members
A/E, CM, Beaumont Fire
Safety, JLL@BHS
Safety, Infection Control,
Subcontractors
Deliverables/Expectations
Pre-Construction
Construction
A/E, CM, Contractors,
Vendors
1. Check Lists for inspection and testing
2. Training Schedule
3. As-built Drawing Monitoring
Construction
A/E, CM, Contractors,
Beaumont Safety,
JLL@BHS Safety,
Infection Control
1. Minutes for Team Meetings to resolve
issues
2. Dispute Resolution Documented
3. Bulletins Issued and Distributed for all
changes
Issued 6/30/04
Revised 10/17/11
1. Commissioning Schedule developed
from Commissioning Check List
2. Construction Schedule that includes
time for inspections, testing, training,
close-out
3. Facility Services Schedule for
Construction Walk-thrus
Page 3 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 91 01 - COMMISSIONING STEPS
Step No.
8
9
Commissioning Activity
Project Phase
Commissioning Acceptance
 Start-Up
 Testing completed and
documented
 Maintenance training
completed and documented
 User In-service completed
 Transfer of Warrantee
Information to Facilities
Services
 Operations and Maintenance
Manuals given to Facilities
Services
Post-Occupancy Evaluation
 Final Payment Sign-off
 Standards
revisions/modifications
 Life cycle cost analysis
verification
 Update “Lessons Learned” List
Pre-Occupancy
01 91 01 Commissioning Steps
Post Occupancy
Issued 6/30/04
Additional Team
Members
Beaumont Fire Safety,
JLL@BHS Safety,
Infection Control
Deliverables/Expectations
Beaumont Fire Safety,
JLL@BJS Safety,
Infection
1. Written Post-Occupancy Evaluation of
Project
2. Updated Lessons Learned List
3. Standards Modification Submittals
4. Life Cycle Cost Analysis Review
Revised 10/17/11
1.
2.
3.
4.
5.
Signed Acceptance Documents
Warrantee Information Given to FS
IEI completed
Equipment Tagged
O & M Manuals delivered to Tech
Library
Page 4 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 91 02 ASSET TAGGING LIST (Equipment Requiring Product Data Information)
Mechanical


















Air Handlers
Humidifiers
Cabinet Unit Heaters
Domestic Water Heaters
Medical Vacuum Pumps
Medical Air Compressors
Refrigeration Machine (Chiller)
Forced Draft Steam Boilers
Boiler Feed Pumps
Condensate Pumps
Medical Gas Alarm Panels
Chilled Water Pumps
Heating Hot Water Pumps
Heat Recovery Unit
Back Flow Preventers
Hot Water Recirculating Pump
Hoods (lab, exhaust, vent, etc.)
Fans (Exhaust, Return, Roof
Exhaust, Etc)











Sub Stations
Switchgear
Motor Control Centers
Paralleling Switchgear
Emergency Generator
Emergency Generator Remote
Radiator
Meters
Master Clock System
Automatic Transfer Switches
Telemetry
Power Panels



Rated Doors
Automatic Door Operators
Platform Lift (Wheelchair)



Elevators
Dumbwaiters
Pneumatic Tube Stations


















Domestic Water Booster Pump
Sump Pump
Sterilizers
Condensate Receiver & Pump
Unit Heater (Water)
Unit Heater (Steam)
Steam to water Heat Exchanger
Lab Air Compressor
Lab Air Desiccant Dryer
Fan Coil Unit
Duplex Instrument Air Compressor
Instrument Air Dryer
Air Conditioning Units
Cooling Tower
Tanks (fuel, condensate, water, etc.)
Fuel Oil Pumps
Dampers (Fire, Smoke, Combination)
Variable Frequency Drives
Electrical






Distribution Panels
Lighting Panels
Isolation Panels
Receptacle Panels
Transformers
Nurse Call Control Cabinets





Closed Circuit TV System
Alarm Panels
Fire Alarm Panels
Control Panels
UPS
Architectural



Revolving Door
Automatic Sliding Door
Fire Extinguishers
Conveying Systems



Pneumatic Tube Blowers
Pneumatic Tube Diverters
Trash/Linen Chutes
This list is not meant to be all-inclusive. All equipment that will need preventative or
corrective maintenance should be included.
01 91 02 Asset Tagging List
Issued 6/30/04
Revised 10/17/11
Page 1 of 1
Jones Lang LaSalle @ Beaumont Health System
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 01 91 03 CONTRACTOR INSTALLED EQUIPMENT INPUT FORM
PO# (or Letter of Engagement #)**
Project #
Information Supplied By:
Contractor
Contractor
Contractor
Contractor
Contractor
Contractor
Contractor
Contractor
Contractor
Contractor
Unit ID #
Equip First Line of
Description
Facilitech
Rm #
Vendor /
Contractor
Manufacturer
Serial Number
Model #
Cost
Install
Date
Warranty
Period
**Where the PO# or EL# are different than the main PO# / EL#, please indicate the different
number in the spreadsheet column / row related to that particular piece of equipment.
All blank rows will be associated with the number indicated at the top.
01 91 03 Contractor Installed Equipment Input Form 1
Issued 6/30/04
Contractor Contractor Contractor
Warranty
Service
Contact
Drawing # Submittal
la/karen contractor installed equip input form
Revised 10/17/11
Page 1 of 1
Construction / Design Standards
Electrical
Standard No. Standard Name
Current
Previous
Revision Summary
Revision Date Revision Date
Author
26 00 00
Basic Electrical Requirements
10/17/11
6/30/04
Updated Standard No.
Jherschelman
26 05 13
Wire and Cable
10/17/11
6/30/04
Updated Standard No.
Jherschelman
26 05 33.16
Boxes
10/17/11
6/30/04
Updated Standard No.
Jherschelman
26 05 33.23
Raceways
10/17/2011
7/29/11
26 05 53
10/17/2011
7/29/11
1.01 C. 1. added, 1.02 !.2 added, updated
Standards No
Jherschelman
Identification
1.05 h) added. "Life Safety removed from 1.05 a),
Updated Standards No.
26 05 83
Wiring Connections & Connecting Devices
10/17/2011
7/29/11
1.01 B revised, Updated Standards No.
Jschwartz
Jherschelman
Jherschelman
26 09 00
Electrical Monitoring & Control System
10/17/2011
11/19/08
See sections 1.01, B-5 and 2.01, B, Updated
Standards No.
Jschwartz
Jherschelman
26 11 00
480 Volt Substations
10/17/2011
7/13/10
1.01 A4d - i-iv Closed Transition, add IRISS to
1.01.9.b, Updated Standards No.
Jschwartz
Jherschelman
26 18 36
Fuses
10/17/11
6/30/04
Updated Standard No.
Jherschelman
26 33 53
Uninterruptible Power Supply
10/17/2011
7/29/11
Deleted MGE from 1.02 A, Updated
Standards No.
Jherschelman
26 50 00
Lighting Systems
10/17/2011
7/29/11
Added 1.02 L., Updated Standards No.
Jherschelman
27 00 00
Telephone Data Requirements
10/17/2011
2/23/11
New Section,
Dmeyers,
Jherschelman
28 31 00
Fire Alarm Desing Requirements
10/17/11
5/24/10
New Section, Updated Standards No.
FA/FS,
JHerschelman
28 31 01
FA Design Drawings
10/17/11
TBD
Updated Standard No.
FA/FS,
JHerschelman
1/24/2012
O:\FD_BuildingStds\JLL BHS Standards\Standards Update Tracker New #s 072811.xls
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN / CONSTRUCTION
GUIDELINES & STANDARDS
ELECTRICAL
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN / CONSTRUCTION GUIDELINES & STANDARDS
ELECTRICAL
TABLE OF CONTENTS
Section - Index
26 00 00 - Basic Electrical Requirements.......................................................................... 1
26 05 13 - Wire & Cable .................................................................................................... 2
26 05 33.16 - Boxes .......................................................................................................... 3
26 05 33.23 - Raceways.................................................................................................... 4
26 05 53 - Identification ......................................................................................................5
26 05 83 - Wire Connections & Connecting Devices......................................................... 6
26 09 00 – Electrical Monitoring & Control System ............................................................7
26 11 00 – 480 Volt Substations ....................................................................................... 8
26 18 36 - Fuses ............................................................................................................... 9
26 33 53 – Uninterruptible Power Supply ..........................................................................10
26 50 00 - Lighting Systems.............................................................................................. 11
27 00 00 – Telephone Data Requirements.........................................................................12
28 31 00 – Fire Alarm Design Requirements .....................................................................13
28 31 01 – Fire Alarm Design Drawings (TBD) ..................................................................14
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 00 00 BASIC ELECTRICAL REQUIREMENTS
PART 1: GENERAL
1.01
SYSTEM DESCRIPTION
A. Seismic Requirements for the following equipment shall be provide - as defined by
BOCA for essential facilities:
1.
2.
3.
4.
5.
6.
7.
8.
9.
10.
11.
12.
13.
14.
15.
16.
17.
All conduits 2 ½” and larger.
All bus ducts.
Primary switchgears.
Medium voltage distribution systems.
Transformers.
Unit substations.
Distribution panels.
Power panels.
Panelboards.
Operating Room Hospital isolation Panels.
Motor Control Centers.
Uninterruptible Power Supply (UPS) Systems.
Emergency Power Supply System. (EPSS)
a) Generator.
b) Parallel switchgear.
c) Automatic Transfer Switches.
Variable frequency drives.
Light fixtures.
Cable tray
Fire alarm panels
B. Mounting Heights: to centerline of outlet box or equipment, unless otherwise noted.
1.
2.
3.
4.
5.
6.
7.
8.
9.
10.
11.
12.
Bracket outdoor fixtures – 12 inches above door frame if above door, or even
with the top of door frame if mounted at side of door.
Bracket mirror lighting fixture – above mirror.
Bracket exit lighting fixtures – 6’-8” to bottom of fixture for ceiling up to 9 feet.
Mount at 8’-0” to bottom for ceiling higher than 9 feet.
Recessed exit light fixture – above door, midway between top of door frame
and ceiling if ceiling is 8 feet or 9 feet. For higher ceiling, mount 12 inches
above door.
Switches – 3’-10”.
Receptacles, finished areas – 1’-6”.
Receptacles, behind furniture partition system - 6” horizontally to top of box.
Receptacles, mechanical rooms – 3’-0”.
Clock outlets – 6’-8” to bottom of clock.
Tel/Com outlets, desk mounted – 1’-6”.
Tel/Com Outlets, behind furniture partition system - 6” horizontally to top of
box.
Telephone outlets, wall mounted – 4’-6” (to coin slot for Barrier Free).
26 00 00 Basic Electrical Requirements
Issued 6/30/2004
Revised 10/17/11
Page 1 of 6
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 00 00 BASIC ELECTRICAL REQUIREMENTS
13.
14.
15.
16.
17.
18.
19.
20.
21.
22.
Safety switches – 4’-10”.
Motor starters – 4’-10”.
Panel cabinets – 6’-8” to top, providing bottom of cabinet is not less than 12
inches above the floor.
Fire alarm pull stations – 3’-10”.
Push buttons – 3’-10”.
Fire alarm chime/speaker/bell – 6’-8” to bottom of device.
Fire alarm strobe – 6’-8” minimum to bottom of device, 8’-0” maximum to top
of device.
Fire alarm audio/visual – 6’-8” minimum to bottom of device, 8’-0” maximum
to top of device. .
T.V. outlets – 1’-6”.
Nurse call system.
a)
Patient station – 3’-10.
b)
Emergency call stations – 3’-0”.
c)
Duty station – 4’-6”.
d)
Corridor dome light – 7’-6”.
C. System coordination and short circuit study.
1. The cost of a coordination and short circuit study, and breaker trip settings shall
be included in the project. Studies shall be performed by an independent testing
agency selected by Beaumont Services Company LLC. The coordination study
shall include a list of all relay settings as determine for optimum performance.
2. Breaker trip settings, and all adjustable relay setting shall be determined, and
set, by the same independent testing agency that did the studies.
D. When ground-fault protection is provided at the service main(s), an additional step of
fault protection shall be provided at the next level of protection downstream.
Ground-fault protection devices shall be fully adjustable to provide selective
coordination. Downstream devices shall be coordinated to open before the main.
The purpose of this requirement is to limit the effects of a ground fault on the
distribution system. A fault to ground in a distribution branch must not cause an
entire area to lose power.
After ground-fault equipment has been installed it shall be performance tested at
each level of protection.
E. Every effort shall be made to provide adequate power outlets. This is necessary so
that portable plug-in-strips will not be required in the future. Temporary wiring
methods must not be a future solution the lack of permanent wiring devices. Pay
particular attention to receptacle layouts for offices and nurses stations.
F. Branch Circuits
26 00 00 Basic Electrical Requirements
Issued 6/30/2004
Revised 10/17/11
Page 2 of 6
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 00 00 BASIC ELECTRICAL REQUIREMENTS
1.
Design spare capacity into branch circuits. Use lighting/power plans and
panelboard schedules to indicate where branch circuits are used and loaded.
Do not connect more than 1200 watts of lighting fixtures to any 20-ampere,
120-volt branch lighting circuit. Do not connect more than 3200 watts of
lighting to any 20 ampere 277 volt branch lighting circuit. Limit the quantity of
duplex receptacles on a typical general use receptacle circuit (120-volt, 20
ampere) to six (6).
2.
Do not connect single phase motor loads to a general purpose or special
receptacle circuit. Connect all single or three phase motor loads to
independent circuits.
3.
Do not connect power receptacles to lighting circuits.
4.
Install Life Safety Branch circuits in a separate raceway system. Do not
install Life Safety Branch, or Critical Branch, circuits in raceway containing
normal power, except as permitted by the NEC. Install wiring for hospital
essential electrical system in accordance with NFPA 70 and NFPA 99
(latest editions).
5.
Branch circuit wires shall be sized for a maximum 3% voltage drop, based on
copper cables, 86°F ambient, maximum 80% power factor and 80% circuit
rating. Distance shall be one way from the panelboard to the farthest outlet or
load.
Minimum wire sizes shall be determined by the following table:
Maximum Distance for Branch Circuit Wiring
AWG
120V, 20A circuit
277V, 20A circuit
#12
50ft
120ft
#10
90ft
200ft
#8
130ft
300ft
6.
Where conduit sizes are not indicated, install sizes per NEC requirements,
except do not use conduit smaller than 1/2 inch unless otherwise specified.
7.
Wiring responsibilities: Designer’s specification shall indicate that the
electrical contractor is responsible for wiring 120v power to smoke / fire
dampers. Designer is responsible for providing circuiting on the construction
documents. Electrical Contractor is responsible for providing connected circuit
designation on the as-built drawings.
26 00 00 Basic Electrical Requirements
Issued 6/30/2004
Revised 10/17/11
Page 3 of 6
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 00 00 BASIC ELECTRICAL REQUIREMENTS
G. The Electrical Contractor shall warranty the electrical work for a period of one year
from the date the electrical system is accepted by the BSC Project Manager. The
warranty shall include parts (necessary for repairs at the job site), labor, travel, and
expendables (used during the course of repair such as hardware, oils, tools, filters,
cleaning agents and other service items used in the course of repair).
H. Construction Drawings
1.
2.
I.
Show the following information on the construction drawings:
a)
SITE PLAN: Show electrical items including, but not limited to, exterior
feeders, manholes, duct banks, primary switches, transformers,
lighting fixtures, and existing underground utilities in the vicinity of the
work being done.
b)
KEY OR LEGEND: Use BSC Standard graphic symbols. Symbols shall
be sized for the format in which they will be printed.
c)
FIXTURE SCHEDULE: Shall indicate type; mounting height; number
and type of lamps; number and type of ballast; finish when appropriate;
method of mounting; manufacturer's name and catalog number; and
two other acceptable manufacturers, when appropriate. Do not use "or
equal."
d)
PANELBOARD AND SWITCHBOARD SCHEDULE: Shall include bus
rating; circuit identification; circuit breaker description, including AIC
rating; and the connected load on each circuit in amperes, or kW.
Indicate total connected load, number and size of spare, and space,
positions and demand load. Group the panelboard schedules together.
e)
ONE-LINE DIAGRAM: Every project that changes the electrical
distribution system shall include a one-line diagram. Riser diagrams
are not a substitute for a one-line diagram. The one-line diagram shall
be compatible with the BSC record one-line drawing. The diagram
shall be treated as a modification to the record one-line, and shall be
capable of being inserted into the original document without changing
the scale, or symbolism.
Drawings shall be produce in accordance with the BSC, Technical
Information Group, CAD Guidelines Manual.
As-Built Drawings
1.
The installing electrical contractor and the low voltage and signal subcontractors shall prepare detailed as-built drawings of the final installation.
2.
A separate set of as-built drawings shall be produced for each electrical
system. System drawings shall include: power, lighting, fire alarm, nurse
26 00 00 Basic Electrical Requirements
Issued 6/30/2004
Revised 10/17/11
Page 4 of 6
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 00 00 BASIC ELECTRICAL REQUIREMENTS
call, music and paging, TV, telemetry, physiological monitoring,
data/communications, security, Cutler-Hammer PowerNet, ASCO Thin
Web Server, and all other specialty systems installed.
3.
As-built drawings shall not be a reproduction of the design documents.
4.
The power as-built shall include a one-line drawing that is an exact
representation of what has been installed. The one line shall include
breaker and fuse sizes and the correct numbered positions of the breakers
and fuses within the substations and panelboards.
J. Energy Conservation
1.
Energy conservation measures must be given early consideration (preliminary
design phase) of the construction project. Review and coordinate all
disciplines within the design team to achieve the optimal, energy efficient,
design.
2.
Consider the available lighting system ballasts, lamps, and controls,
transformers, UPS, motors, and VFD’s when designing for the best energy
efficiency.
3.
Evaluate energy saving devices (e.g. motion sensors, photo sensors, time
switches, etc) for cost effective implementation. Calculate the projected
energy cost of various design alternatives. Use these devices if payback can
be shown to occur within two years.
4. Minimize IR losses in the power distribution system.
K. Magnetic Flux
1.
Do not place electrical distribution equipment that generates high magnetic flux in
the vicinity of sensitive electronic, or medical, equipment.
2.
Some of the equipment that produces high flux includes: large transformers, large
motors, distribution bus, UPS and other equipment and loads that draw
substantial current.
L. Monitoring systems
1. Cutler Hammer, PowerNet is used to monitor power at Substation mains and
other selected distribution branches. Addition to this system shall be determined
in the design phase of a project integrated into the existing network to obtain
maximum, data acquisition, and performance. The Engineer of Record shall
coordinate the design with Cutler Hammer engineering and use the master, BSC,
26 00 00 Basic Electrical Requirements
Issued 6/30/2004
Revised 10/17/11
Page 5 of 6
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 00 00 BASIC ELECTRICAL REQUIREMENTS
TIG document to show any addition(s), or modification(s), to the Cutler Hammer
network. The section of the master document modified by the addition(s), and
the costs for changing the program and graphic display, shall be included in the
construction cost.
2. The Cutler Hammer E-Bill program is used for energy management purposes.
Consult with JLL@BHS’s Energy Engineer for loads that need to be monitored by
this system. The data for this program is obtained from the PowerNet system
(described in item #1 above). At a minimum, a Cutler Hammer IQ Energy
Sentinel shall be installed at the secondary main breakers of all new substations
and at other selected locations as determined by the BSC Energy Engineer in the
design phase of the project. The cost of the network connection and
programming of each device shall be included in the construction cost.
3. ASCO’s Thin Web Server is used to monitor emergency power generators,
parallel gear and automatic transfer switches. Additions to this system shall be
determined in the design phase of a project integrated into the existing network
to obtain maximum, data acquisition, and performance. The Engineer of Record
shall coordinate the design with ASCO engineering and use the master, BSC,
TIG document to show any addition(s), or modification(s), to the ASCO network.
The section of the master document modified by the addition(s), and the costs for
changing the program and graphic display, shall be included in the construction
cost.
4. The Engineer of Record shall use the master document to show any addition(s),
or modifications to the ASCO network. The section of the master document
modified by the addition(s) shall be included in the contract documents.
5. Additions, or modifications, to monitoring systems shall be integrated with the
existing networks so that performance is not degraded.
26 00 00 Basic Electrical Requirements
Issued 6/30/2004
Revised 10/17/11
Page 6 of 6
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 13 WIRE and CABLE
PART 1: GENERAL
1.01 DESCRIPTION
A.
Medium voltage cable. Greater than 600 and less than 69kV.
1.
2.
3.
B.
Connectors
a)
Connectors for splicing copper conductors:
b)
Connectors for straight splicing conductors: solderless
compression 2-way type.
c)
Connectors for 3-way splicing conductors: solderless
compression type.
Lugs for terminating copper conductors:
a)
Solderless compression type, one hole for sizes through No.
4/0 AWG, and two hole for larger sizes. Stress Cones
b)
For indoor installation, use kit rated 15 KV. Installation shall
be in conformance to cable manufacturer's requirements.
Drain wires and shielding tape.
a)
Effectively ground at both ends.
b)
Prove effective ground continuity at all splices.
4.
Apply fire wrapping to all cabling in all manholes and vaults
5.
Labeling
a)
All cable shall be labeled in manholes, pull boxes and cable
vaults
b)
Labeling shall indicate the phase and source of power.
Low voltage wiring. Less than 600-volts
1.
Furnish copper conductors of 98% conductivity unless otherwise
specified
2.
Conductors shall not be less than No. 12 AWG, except control
conductors which may be No. 14 AWG, and signal system wiring
which will be sized according to system manufacturer’s
requirements..
26 05 13 Wire And Cable
Issued 6/30/2004
Revised 10/17/11
Page 1 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 13 WIRE and CABLE
C.
3.
Furnish solid conductors for sizes No. 14 AWG and smaller, and
stranded conductors for sizes No. 12 AWG and larger
4.
Color coding for branch circuits and feeders:
480/277 Volt
208/120 Volt
Phase A
Brown
Black
Phase B
Orange
Red
Phase C
Yellow
Blue
Neutral
Gray
White
Ground
Green
Green
5.
Wire for final connection in conduit to incandescent fixtures, HID
fixtures with remote ballasts, and remote ballasts shall be stranded
copper, NEC Type SF-2 rated 200 deg. C, 600 volts.
6.
Wire for use in fluorescent fixture wiring channels shall be stranded
copper, NEC Type RHH, THHN, or XHHW, rated 90 deg. C, 600
volts.
7.
Wire for exposed cord connection to fluorescent Fixtures shall be
three conductor stranded copper; NEC Type SO rated 60 deg. C,
600 volts
8.
Wire for General Interior and Exterior Work shall be single
conductor, annealed copper, rated 600 volts as follows:
a)
NEC Type THWN, rated 90 C, dry and damp location.
b)
NEC Type XHHW, rated 90 C, dry and damp location and 75
C, wet location
Armored Cable, AC (Type HFC)
1.
AC shall be UL Listed for Health Care Facility (HFC). Flexible
armored cables shall not be utilized for any emergency system (life
safety, critical or equipment) branch wiring, except as permitted in
NEC, Article 517.
26 05 13 Wire And Cable
Issued 6/30/2004
Revised 10/17/11
Page 2 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 13 WIRE and CABLE
2.
Wire for general flexible armored cables: The galvanized steel
armor cable shall be NEC Type AC, Multi-conductor cable,
stranded, copper wire, THHN (90 Deg C) insulation, 600 volt rated.
Cable shall contain a bare grounding conductor and an insulated
ground conductor.
3.
Do not substitute MC for HFC. One of the most important
differences between these two cable types is the grounding means
of the assembly. Type MC has only one equipment grounding
means, a green grounding conductor. Type HFC cable uses the
interior bond wire in combination with the exterior interlocked
metal armor as the equipment grounding means of the cable. Type
MC cable is manufactured with a green insulated grounding
conductor, and this conductor, in combination with the metallic
armor, produces a redundant equipment ground system.
4.
The bare wire in Type AC cables is a bonding wire to enhance the
ground fault capability of the interlocked outer metal armor. It does
not have to be terminated like a bare grounding conductor because
that is not its function. This bare bond wire may be trimmed off to
the same length as the armor, or, brought up and over the red antishort bushing and back wrapped over the armor.
5.
HFC can be utilized for normal branch wiring in concealed dry
areas. Do not use in exposed areas, such as mechanical rooms.
Do not use for home runs.
6.
Flexible armored cables shall be securely supported per the
requirements of NEC, Article 333. Support shall be made at
intervals not exceeding 54-inches at within 12-inches of junction
box
D.
Wire for Direct Burial or In Underground Duct or Conduit shall be single or
multi-conductor, NEC Type USE rated 75 deg C, 600 volts.
E.
Multi-Conductor Control Cable for Installation in Conduit shall be
consisting of 7 strand annealed copper individual conductors insulated
with 26 mils linear polyethylene and 4 mils nylon, or 20 mils HMW
polyethylene and 10 mils PVC, rated 90 deg C, 600 volts, color-coded per
IPCEA, cabled round with fillers and binder tape, and covered with an
overall jacket of PVC.
F.
Wire for use in High Temperature Areas as required shall be single
conductor, annealed copper; NEC Type SA rated 125 deg C, 600 volts.
G.
Wiring of Branch Circuits and Grounding Systems for Hospital Isolated
Power Centers (IPC).
26 05 13 Wire And Cable
Issued 6/30/2004
Revised 10/17/11
Page 3 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 13 WIRE and CABLE
1.
The State of Michigan no longer amends the NEC to require IPC in
Hospital OR’s. IPC’s are required in certain wet locations, but in
general their use will not be required. Verify wet use classification
with the hospital governing authority. When IPC’s are used the
wiring guidelines below shall be used.
2.
Conductors shall be single conductors, annealed copper rated 60
volts, low leakage insulation with a dielectric constant of 3.5 or less.
NEC type XHHW-2, rated for 90 deg. C, dry and wet locations.
3.
Do not use wiring pulling compound to pull on IPC branch circuits.
4.
Follow NEC color code requirements.
5.
Switching in isolated circuits shall be two pole.
6.
Limit the length of the branch circuit conductors, and the number of
receptacles severed by one branch, to lessen the amount leakage
current.
H.
Provide and secure labels identifying phase and neutral cables with
circuit number (to identify origin of circuit i.e., circuit breaker position or
switch position) for all cables in all terminal cabinets, panelboards,
distribution, control and load centers, pull boxes and wherever conduit
run is accessible. Mark the white marking strip of all control terminal
blocks, with the same identification as the connecting wire, in
permanent black ink.
I.
Multiwire branch circuits are allowed. Where circuits are known to serve
loads that will create large harmonic currents, install a separate neutral
wire for each single phase wire, or increase the size of the neutral to
accommodate the total harmonic current anticipated.
PART 2: PRODUCTS
2.01
MATERIALS
A.
Manufacturers: Medium voltage cable. Greater than 600 and less than
69kV
1.
2.
3.
4.
5.
6.
Okonite
Cabled
Pirelli
Phelps Dodge
Rome
Southwire
26 05 13 Wire And Cable
Issued 6/30/2004
Revised 10/17/11
Page 4 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 13 WIRE and CABLE
B.
Manufacturers: Low voltage wire and cable. Less than 600-volts
1.
Low voltage wire
a)
b)
c)
d)
e)
f)
g)
h)
i)
j)
2.
B.
American Insulated Wire Corp.
Cablec
Carol
General Cable Corporation
Okonite
Pyrotenax
Rockbestos
Rome Cable Corp.
Southwire
Triangle PWC, Inc.
Flexible armored cables shall be as manufactured by AFC, Series
HCF-90 or equal with galvanized steel armor.
Wire - Labels Low voltage wire and cable. Less than 600-volts
1.
Wire labels for identification of conductors, shall be flame resisting,
adhesive type. See Electrical Identification, Section 16195, for
additional information.
a)
Brady
b)
Westline
26 05 13 Wire And Cable
Issued 6/30/2004
Revised 10/17/11
Page 5 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.16 BOXES
PART 1: GENERAL
1.01
SYSTEM DESCRIPTION
A.
Outlet boxes
1.
2.
Sheet Steel Boxes:
a)
Galvanized or sherardized stock, 4 square x 2-1/8" deep.
Boxes shall be not less than No. 14 gage
b)
All wiring device boxes for Duplex Receptacles, switches,
data processing outlets and telephone outlets shall be
nominal 4-inches square by 2-1/8 inches deep, with
appropriate extension ring to bring box to no greater than ¼”
from the surface of the finished wall. Use double device
extension ring for double duplex receptacle and single
device extension ring for single duplex receptacle.
c)
Boxes installed in combustible wall surfaces shall be flush
with the wall, with knockout openings, single or multiple
gang, with extensions, adapters, plaster rings, tile covers,
fixture studs and cover plates.
d)
Provide accessories with same gage and finish as specified
for boxes, except where special finishes are specified for
covers and device plates.
e)
Provide sizes per NEC requirements for wiring space, except
where minimum sizes are specified.
f)
Do not install recessed wall boxes back to back.
g)
Recessed boxes shall not compromise fire rated walls.
When boxes are installed in fire rated walls, use construction
methods that will maintain fire rating.
h)
All boxes shall have covers. Blank covers in finished areas
shall be finished to match color of wall in which they are
installed.
i)
Boxes for room lighting switches shall be installed on latch
side of door within 12” of door frame.
Cast boxes for dry locations
a)
26 05 33.16 Boxes
Use cast boxes for wiring devices installed outdoors or
indoor for exposed construction.
Issued 6/30/04
Revised 10/17/11
Page 1 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.16 BOXES
3.
b)
Cast boxes can have blank treaded fittings with plugs, but
they shall not have knock-outs.
c)
Where an interior box is attached to an exterior wall, provide
a 1/8” air gap between the back of the box and the wall to
prevent corrosion of box due to condensation.
Cast boxes for damp or wet locations.
a)
Receptacles in wet locations shall be installed with an outlet
enclosure clearly marked "Suitable for Wet Locations While
in Use". There must be a gasket between the box and the
cover plate and between the cover plate and the hinged
cover. The receptacle cover shall have a port to allow two
3/8" diameter cords to pass through. The enclosure must
employ stainless steel mounting hardware.
4.
In wet locations, or where an interior box is attached to an exterior
wall, provide a 1/4-in air gap between the back of the box and the
wall.
5.
In damp or wet locations, surface-type enclosures within the scope
of this standard shall be placed or equipped so as to prevent
moisture or water from entering and accumulating within the
cabinet or cutout box, and shall be mounted so there is at least 1/4in. airspace between the enclosure and the wall or other supporting
surface. Enclosures installed in wet locations shall be
weatherproof.
6.
Conduit boxes for hazardous areas. Galvanized, cast or malleable
iron, with threaded hubs and threaded covers, approved for use in
Class 1, Group A, B, C, or D areas as applicable. Provide sizes per
NEC requirements for wiring
7.
Floor boxes:
26 05 33.16 Boxes
a)
Poke through fittings (for flush or pedestal mounting) prewired, suitable for 2-1/4" - 7" thick concrete floor, U.L.
classified for fire resistance in 1-2 hour rated floors,
complete with upper stationary and lower adjustable fire
barriers that expand during fire conditions to provide a fire
seal.
b)
Flush box shall have flush carpet flange, thermoplastic cover
assembly, spring loaded self-closing lift covers, ability to
handle power, data and communication services in a single
unit, internal divider to separate power and low voltage
wiring and integral factory installed junction box that will fit
through 3" hole.
c)
Pedestal mounted box
Issued 6/30/04
Revised 10/17/11
Page 2 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.16 BOXES
B.
Pull and junction boxes:
Box and cover shall be made of galvanized steel. Box and cover shall be
galvanized after fabrication. Gray painted finish. Keyhole screw slots for
plated screws. Box shall be made of Code gauge steel and shall not
have factory knockouts.
1.
Install boxes in an accessible location. Access shall not be blocked
by the work of any trade.
2.
When a box is installed on the an exterior wall use spacers to
provide a minimum 1/8” air gap between back of box and wall
surface.
PART 2: PRODUCTS
1.01
SYSTEM DESCRIPTION
A.
Outlet boxes
1.
Sheet Steel Boxes
a)
Wall and junction boxes
i.
ii.
iii.
iv.
2.
Partition and Channel Mounting Boxes: Trim line Type.
a)
b)
c)
d)
e)
3.
Raco 426 and 427
Appleton
Steel City
Appleton
Steel City
Cast boxes
a)
Galvanized or cadmium plated, single or multiple gang, with
taper threaded hubs, adapters and cover plates.
i.
ii.
iii.
b)
Appleton
Crouse-Hinds
Pyle-National
Outdoor receptacle enclosures (for surface mounted case
box)
i.
ii.
iii.
26 05 33.16 Boxes
Appleton
Hoffman
RACO
Steel City
TayMac
Hubbell
Cooper”WeatherBox”
Issued 6/30/04
Revised 10/17/11
Page 3 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.16 BOXES
c)
Outdoor receptacle enclosures (for recessed case box)
i. TayMac
ii. Hubbell
iii. Cooper”WeatherBox
d)
Conduit boxes for hazardous areas
I.
II.
III.
IV.
B.
Boxes, greater than 4 Inches by 4 Inches.
Sheet Metal Boxes: Code gage, full seam welded with bent-in flanges
seam welded at corner joints, screw fastened cover of same gage as box.
Fasten cover with brass machine screws. Painted galvanized box and
cover.
1.
2.
3.
4.
5.
6.
7.
C.
Hoffman
OZ/Gedney
OZ/Gedney
Appleton
Crouse-Hinds
OZ/Gedney
Pyle-National
Fire rated poke through fittings
1.
1.02
Appleton
Crouse-Hinds
Pyle-National
Killark
Hubbell
SYSTEM DESCRIPTION
A.
OUTLET BOXES
B.
Seismic Requirements: As defined by BOCA for essential facilities:
1.
Partition and Channel Mounting Boxes: Trim line Type.
2.
Raco 426 and 427
a)
b)
c)
d)
26 05 33.16 Boxes
Appleton
Steel City
Appleton
Steel City
Issued 6/30/04
Revised 10/17/11
Page 4 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.23 - RACEWAYS
1.01
SYSTEM DESCRIPTION
A.
Definition of Raceway: An enclosed channel of metal or nonmetallic materials
designed expressly for holding wires, cables, or busbars. Raceways include, but
are not limited to, rigid metal conduit, rigid nonmetallic conduit, intermediate
metal conduit, liquid tight, flexible conduit, flexible metallic tubing, flexible metal
conduit, electrical nonmetallic tubing, electrical metallic tubing, underfloor
raceways, cellular metal floor raceways, surface raceways, wireways, and
busways.
B.
In general, all conduit shall be, galvanized steel, EMT (minimum ¾”) with the
following exceptions:
1.
Where larger size is required by NEC for wire size and conduit fill.
2.
In sizes 5” and larger.
3.
In exterior, or underground, installations
4.
Where ½ " EMT is adequate for single branch circuits, switch legs, or
control wires.
5.
Exposed exterior conduit concealed above 10' A.F.F. shall be rigid
galvanized steel, or IMC.
6.
4800 volt medium voltage cable shall be installed in rigid galvanized steel
conduit, or IMC.
7.
Exposed interior conduit below 10' A.F.F. shall be rigid galvanized steel, or
IMC. Rigid aluminum conduit shall be permitted in existing situations
where its lighter weight would reduce installation costs. When aluminum
is used consideration shall be given to galvanic corrosion. Where
practicable, dissimilar metals in contact anywhere in the system shall be
avoided to eliminate the possibility of galvanic action.
8.
Flexible metal conduit may be used for interior light fixtures above
suspended ceilings, maximum length 6 feet. Flexible metal conduit shall
be steel – aluminum conduit is not acceptable.
9.
Flexible metal conduit may be used for connections to vibrating
equipment; i.e. transformers and motors. Flexible conduit shall be liquid
tight where subjected to moisture.
10.
In lieu of EMT, HFC (AC with redundant ground ) may be used for nonemergency branch circuits.
11.
Heavy wall PVC is acceptable to use in parking structures where not
exposed to physical damage.
26 05 33.23 – Raceways
Issued 6/30/2004
Revised 10/17/11
Page 1 of 7
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.23 - RACEWAYS
C.
Underground conduit
1.
For existing underground / under slab systems, GPS (ground penetrating
radar) or equivalent survey shall be conducted prior to floor cutting or
drilling to verify location of existing systems.
2.
Install caution tape 18-inches above all underground conduit and duct
banks.
3.
Conduit under slabs or exterior below grade may be schedule 80 PVC, or
schedule 40 when encased reinforced concrete with a minimum cover of
3-inches.of concrete.
4.
Duct banks shall be installed to slope away from building and toward
manholes.
5.
PVC conduit installed in concrete duct banks shall be anchored down
before concrete encasement is poured to prevent conduit from floating
during the pour.
6.
Use rigid conduit for all conduit ell’s and where conduit penetrates walls or
floor slabs. Intent is to prevent: 1. The heat of friction from melting PVC
and damaging cable, and 2. Physical damage to raceway at wall and floor
penetrations during construction.
7.
Concrete encasement shall be reinforced with steel re-rod and ties.
8.
Contact AHJ before back filling.
9.
Supports for cable and conduit in manholes shall be heavy duty
nonmetallic glass reinforced polymer.
10.
Manholes shall be supplied with sumps.
11.
Prefabricate reinforced concrete manholes are acceptable.
12.
Manhole covers shall be rated for vehicular traffic.
D.
NEC derating factors will dictate the use larger conductors and conduit as the
quantity of current carrying conductors in a raceway increases. To contain the
cost of conduit and wiring, limit the number of current carrying, branch circuit,
conductors in a single raceway to nine, or less. Use multiwire circuiting where
possible. Do not use multiwire circuiting where separate neutrals are required;
e.g. where harmonic current will be present.
E.
The preferred method of connecting E.M.T. shall be with the use of compression
fittings: however, malleable steel set screw fittings are acceptable. Cast metal
set screw fittings are not acceptable.
26 05 33.23 – Raceways
Issued 6/30/2004
Revised 10/17/11
Page 2 of 7
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.23 - RACEWAYS
F.
All cut ends of conduit must be reamed, to remove rough edges and protect the
wire insulation from abrasion.
G.
Conduit shall be provided with an end bushing to protect the wiring within from
abrasion, except where the conduit enters a box, fitting, or other enclosure
designed to provide equivalent protection.
H.
PVC conduit used in outdoor environments, or in other areas of widely varying
temperature, shall be installed using expansion fittings. Expansion shall be
based on a temperature differential of 100° F.
I.
Insulation shall be installed in conduit that passes between areas of different
temperature to prevent condensation from forming inside conduit and attached
enclosures. In particular, insulation shall be installed in conduit entering from
underground duct banks, or an exposed outdoor environment.
J.
Cable tray
K.
1.
Cable tray can be used for low voltage wiring.
2.
Cable Tray for Power Cable Runs: NEMA Type A, ladder type, hot-dip
galvanized steel with 12 inch rung spacing and a minimum of 4 inch inside
depth from top of rung to top of outside rail.
3.
For ladder tray, rung spacing shall not exceed 12 inches.
4.
Provide anchor clips for attachment of cable
5.
Horizontal and vertical bends, tees, crosses, reducers, hangers, splice
plates, expansion fittings, adapters and other accessories designed for
use exclusively with the tray and so designed as to enable "site"
assembly, fitting and erection without the use of special tools
6.
Cable tray installation shall be accessible.
7.
A minimum clearance of 12-inches shall be maintained above the cable
tray.
8.
When cable tray changes direction the transition shall be made with radius
bends.
Busway. Routing of busway shall consider the affects of magnetic flux. Busway
shall not be installed in close proximity of occupied areas, or in areas where
sensitive electronics are used.
26 05 33.23 – Raceways
Issued 6/30/2004
Revised 10/17/11
Page 3 of 7
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.23 - RACEWAYS
L.
Wireway.
1.
Painted steel enclosure with screw fastened cover, bends, elbows, tees,
crosses, adapters and accessories
2.
Covers of recessed wireways shall be flush with the finished surface of
wall in which they are installed.
3.
Surface mounted wireways shall have hinged covers.
4.
Surface mounted wireways shall not have knock-outs.
5.
Provide sizes as required per NEC Article 362 requirements for wiring
space, except where larger sizes are indicated.
6.
Provide gaskets when located in outdoor areas and in other areas
requiring gaskets.
1.02 PRODUCTS
A.
CONDUIT
1.
Rigid Steel Conduit, Elbows, and Couplings: Zinc-coated threaded steel
per ANSI C80.1 "Specification for Rigid Steel Conduit, Zinc-coated". Each
length of conduit shall be threaded on both ends.
a)
b)
c)
d)
2.
Intermediate Metal Conduit, Elbows and Couplings: Hot-dipped
galvanized per ANSI C80.6 "Intermediate Metal Conduit". Each length of
conduit shall be threaded on both ends.
a)
b)
3.
Allied
Triangle
Electrical Metallic Tubing: Zinc-coated steel per ANSI C80.3
"Specification for Electrical Tubing, Zinc-coated".
a)
4.
Allied
Republic
Triangle
Wheatland
Triangle
Flexible Steel Conduit: Per UL-1, "Flexible Steel Conduit".
a)
b)
26 05 33.23 – Raceways
AFC
Triangle
Issued 6/30/2004
Revised 10/17/11
Page 4 of 7
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.23 - RACEWAYS
5.
Liquid-Tight Flexible Steel Conduit: Per UL-360 "Liquidtight Flexible Steel
Conduit, Electrical".
a)
b)
6.
Explosion proof Flexible Metal Conduit: Approved for use in Class I,
Group A, B, C and D areas and not requiring a bonding jumper.
a)
b)
c)
1.
Appleton Type "EX"
Crouse-Hinds Type "EC"
OZ/Gedney Type "EC" CONDUIT FITTINGS
Fittings for Rigid Steel or Intermediate only, cadmium or zinc-plated, with
taper threads, and screw attached cover plates. Provide gaskets when
located in areas requiring gaskets.
a)
b)
c)
2.
AFC
"Sealtite" Electriflex
Appleton Form 35
Crouse-Hinds Form 8
OZ/Gedney Form 35
Expansion Fittings for Rigid Steel or Intermediate Metal Conduit: Cast or
malleable iron bodies, with threaded end caps for receiving fixed and
movable conduits, metallic pressure packing and copper bonding jumper
assembly, and providing for a minimum of 2 inches movement of the
conduit in either direction.
a)
b)
c)
Appleton Type XJ
Crouse-Hinds Type XJ
OZ/Gedney Type AX
3.
Expansion Joint for Steel Conduit Encased in Concrete: Non-ferrous
expansion joint consisting of a flexible tube with end fittings to receive the
conduit and rubber tubing to cover the joint.
4.
Seal Off Fittings for Sealing Conduit for Hazardous Areas: UL listed for
use in Class I, Group A, B C, and D areas.
a)
b)
c)
5.
Appleton
Crouse-Hinds
OZ/Gedney
Couplings and Connectors for EMT: Zinc-plated steel, compression type
or set screw type.
a)
b)
c)
d)
26 05 33.23 – Raceways
Appleton
OZ/Gedney
Thomas & Betts
Midwest
Issued 6/30/2004
Revised 10/17/11
Page 5 of 7
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.23 - RACEWAYS
6.
Conduit Unions, on Continuous Run:
a)
7.
Fittings for Flexible Steel Conduit: Malleable iron or steel, zinc or
cadmium plated, securing the conduit by clamping action around the
periphery of the conduit. Do not furnish fittings that anchor the conduit by
means of set screws
a)
b)
8.
Appleton ST Series
OZ/Gedney 4Q
Thomas & Betts 5331 to 5360
9.
Locknuts for Rigid Steel or Intermediate Metal Conduit: Malleable iron or
steel, zinc or cadmium plated.
10.
Bushings for 1 Inch and Smaller Rigid Steel Conduits or Intermediate
Metal Conduit: Insulating plastic type of nonburnable thermosetting
phenolic, conforming to Underwriters' Laboratories requirements. Do not
furnish nonrigid plastic bushings.
11.
Bushings for 1-1/4 Inch and Larger Rigid Steel Conduits or Intermediate
Metal Conduit: Malleable iron or steel, zinc or cadmium plated, with
insulating insert of thermosetting plastic as specified for smaller conduit
bushings, molded and locked into the bushing ring.
WIREWAYS
1.
2.
3.
4.
D.
Appleton
OZ/Gedney
Fittings for Liquid-Tight Flexible Steel Conduit: Designed to maintain the
liquid-tight feature of the installation. Fittings shall be specifically
approved for use with liquidtight flexible steel conduit.
a)
b)
c)
C.
Erickson
General Electric
Hoffman
Square D
Wiremold
CABLE TRAY
1.
2.
3.
4.
5.
6.
B-Line
Cablofil
Chalfant
Cope
Globe
MP Husky
26 05 33.23 – Raceways
Issued 6/30/2004
Revised 10/17/11
Page 6 of 7
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 33.23 - RACEWAYS
E.
MISCELLANEOUS
1.
Trapeze Hangers: Hot-dipped, galvanized cast malleable iron straps or
structural steel with hot-dipped galvanized nuts and bolts.
a)
b)
c)
2.
Unistrut
Kindorf
Powerstrut
Tap-on or indenter type fittings, die cast or sand cast fittings will not be
acceptable.
26 05 33.23 – Raceways
Issued 6/30/2004
Revised 10/17/11
Page 7 of 7
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 05 53
IDENTIFICATION
PART 1: GENERAL
1.01
SYSTEM DESCRIPTION - DISTRIBUTION EQUIPMENT IDENTIFICATION
All power panels, distribution panels, lighting panels, receptacle panels,
motor control centers, transformers, disconnect switches, automatic
transfer switches, isolated power centers and uninterruptible power
supplies shall be labeled.
A.
Labeling nomenclature and the assignment of panel board numbering
shall be coordinated with the BSC Electrical Shop before it is used on
construction documents.
B.
Where panels are located in finished areas, identify them on the inside
cover.
C.
For each component of equipment, unless otherwise specified, securely
attach a plate with manufacturer's name and catalog number on it or
stamp or cast into the body of the items the name and catalog number of
the equipment.
D.
Apply labels to equipment after the general painting of the building
interiors and other general painting is completed.
E.
Identification labels shall be:
1.
2.
3.
F.
Labels shall be:
1.
2.
3.
4.
G.
Black with White letters for normal power
Red with white letters for emergency power.
Orange with black letters for UPS.
Line one of label shall be center justified
1/2" space between lines 1 and 2.
Line two through five shall be left justified.
5/16" space between line 2, 3, 4 and 5.
Line 1 shall describe the “Type of Panel or Equipment” followed by a dash;
the “Type of Service”, followed by a dash; the “Panel Designation”
followed by a dash; then the “Servicing Substation Source” or “UPS
Number”.
1.
Acceptable abbreviations for “Type of Panel or Equipment” are:
a)
b)
c)
d)
26 05 53 Identification
PP – Power Panel
DP – Distribution Panel
LP – Lighting Panel
RP – Receptacle Panel
Issued 6/30/04
Revised 10/17/11
Page 1 of 8
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 05 53
IDENTIFICATION
e)
f)
g)
h)
i)
j)
k)
l)
m)
2.
3.
26 05 53 Identification
MCC – Motor Control Center
T – Transformer
DISC – Disconnect Switch
CTK BKR – Circuit Breaker
MTR. STR. – Motor Starter
DISC. SW. – Disconnect Switch
IPC – Isolated Power Center
ATS – Automatic Transfer Switch
Sub – Substation
Acceptable abbreviations for “Type of Service” are:
a)
Normal System
i.
N – Normal System
b)
Essential System:
i.
L – Life Safety Branch
ii.
C – Critical Branch
iii.
E – Equipment Branch
c)
Uninterruptible Power System
i.
UPS – UPS System
Line one examples:
a)
MCC-N-LL01-F
i.
Type of equipment is MCC (Motor Control Center) –
Type of service is N (Normal System) – Panel
Designation is LL01-Servicing substation source is
Substation F.
b)
LP-L-304-AN
i.
This lighting panel feeds from the Life Safety Branch.
c)
RP-UPS-201-37
i.
This 2nd floor receptacle panel is fed from UPS 37
d)
PP-UPS-B02-98/99
i.
This power panel feeds from a manual transfer switch
on the output of UPS 98 and UPS 99.
Issued 6/30/04
Revised 10/17/11
Page 2 of 8
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 05 53
H.
IDENTIFICATION
Line 2 shall indicate the voltage, phase designation and the number of
conductors. Acceptable abbreviations are:
Voltage Conductors
Phase Designation
120V
208V
108/120V
240V
240/120V
277V
480V
480/277V
480V
1PH
3PH
3PH
3PH
1PH
1PH
3PH
3PH
3PH
Number
2W
3W
4W
3W
3W
2W
3W
4W
3W
1. Line two example: 480V – 3PH - 3W
I.
Line three shall indicate the first disconnecting means and circuit feeding
this panel or equipment.
1.
J.
Line three example: Fed from PP - N - LL04- F CKT #1
Line four shall indicate the location of the disconnecting means identified
in line three. Line four shall indicate location by floor, building and room
respectively.
1.
Line four example: LL NTW Elect Rm
2.
Acceptable abbreviations for floor are:
a)
b)
c)
d)
e)
f)
g)
h)
i)
j)
k)
l)
26 05 53 Identification
Lower Level
1 - First Floor
2 - Second Floor
3 - Third Floor
4 - Fourth Floor
5- Fifth Floor
6-Sixth Floor
7-Seventh Floor
8-Eighth Floor
Ninth Floor
P – Penthouse
Mezz - Mezzanine
Issued 6/30/04
Revised 10/17/11
Page 3 of 8
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 05 53
3.
IDENTIFICATION
Acceptable abbreviations for building are:
a)
b)
c)
d)
e)
f)
g)
h)
i)
j)
k)
l)
m)
n)
o)
p)
K.
Line five shall indicate the substation and circuit feeding this equipment.
1.
1.02
Unit substations shall have an external, permanently attached, mimic bus
diagram. The function of each substation cubicle shall be identified using
one line diagram symbols. The cubicle symbols shall form a continuous
one line diagram on the overall front elevation of the substation.
SYSTEM DESCRIPTION - WIRING DEVICE IDENTIFICATION
A.
1.04
Line five example: SUBSTATION F CKT 2
SYSTEM DESCRIPTION -UNIT SUBSTATION MIMIC BUS
A.
1.03
NT - North Tower
ET - East Tower
NWT - North West Tower
ST - South Tower
SH - South Hospital
CT - Central Tower
NTE - North Tower East
NTW - North Tower West
ETN - East Tower North
ETS - East Tower South
CTN - Central Tower North
CTE - Central Tower East
CTW - Central Tower West
CTS - Central Tower South
CT OCT - Central Tower Octagon
W - West
Receptacle and light switch cover plates shall be identified with the circuit
from which they are fed from using a Brady Handheld Labeling System.
#TLS2200 with Label Part #PTL-45-430 and Font Size 7, and Brady
#LAM-3-103 clear polyester applied over the top of the label.
SYSTEM DESCRIPTION - POWER CONDUCTOR IDENTIFICATION
A.
Conductors shall be identified with the Brady Handheld Labeling System
#TLS2200 with Label Part #PTL-19-499 and R4310 Ribbon, indicating the
circuit number, wire number or phase letter at every terminal point or
splice. Provide circuit identification of every unspliced conductor within
each junction or pull box. For multi-conductor 6-pair cable, cable shall be
identified with the Brady Handheld Labeling System #TLS2200 with Label
Part #PTL-31-427 and R4310 Ribbon.
B.
The neutral conductor of a multiwire circuit shall be labeled to identify
every circuit that it serves. Labeling shall be attached to the neutral wire
in every junction or device box in which it appears.
26 05 53 Identification
Issued 6/30/04
Revised 10/17/11
Page 4 of 8
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 05 53
1.05
IDENTIFICATION
SYSTEM DESCRIPTION -JUNCTION BOX IDENTIFICATION
A.
B.
C.
D.
E.
F.
G.
H.
Red = Emergency Power (Life Safety(deleted), Critical and Equipment)
Black = Normal Power
Yellow = Nurse Call
Brown = Data/Communications (Telephone)
Orange = Fire Alarm
Blue = Communications (Paging, Music and Intercom)
Pink = Security
Purple = Life Safety Power
Where spray paint is prohibited because of sensitive occupancy or fire
hazard, a brush on painting method must be used.
1.06
SYSTEM DESCRIPTION - BRANCH CIRCUIT IDENTIFICATION
A.
Panelboards shall have typed circuit directories identifying each load and
location. Up-date all existing panel schedules with new typed schedules
for panels affected by work in this contract including additions or deletions
to existing panels.
B.
Panel schedules shall be produced in digital format. Digital copies of all
panel schedules shall be delivered to owner at the completion of the
project.
PART 2: PRODUCTS
2.01
DISTRIBUTION EQUIPMENT IDENTIFICATION LABELS
A.
For all power panels, distribution panels, lighting panels, receptacle
panels, motor control centers, transformers, disconnect switches,
automatic transfer switches, isolated power centers and uninterruptible
power.
B.
Identification labels shall be made with “Brady Thermal Transfer Printable
media.
1.
Black with White letters for normal power circuit labeling: Brady
THT-107-423 Stock label or Brady #Y80964 Item #0010 w/ R6007
Ribbon.
2.
Red with white letters for emergency power: Brady THT-107-423
Stock label or Brady #Y80964 Item #0010 w/ R4407R Ribbon.
3.
Orange with black letters for UPS circuit labeling: Brady THT-107439OR Stock label or Brady #Y80964 Item #1120 w/ R6007
Ribbon.
4.
Brady #Y80964 labels are pre-cut to 4.00” x 6.50” from the factory
for those printing without automatic cutter option.
26 05 53 Identification
Issued 6/30/04
Revised 10/17/11
Page 5 of 8
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 05 53
2.02
SYSTEM DESCRIPTION -UNIT SUBSTATION MIMIC BUS
B.
2.03
2.05
Unit substations external, permanently attached, mimic bus diagram shall
be laminated plastic, or decals, as per the option available through the
substation manufacturer.
SYSTEM DESCRIPTION - WIRING DEVICE IDENTIFICATION
A.
2.04
IDENTIFICATION
Receptacle and light switch labels shall be made using a Brady Handheld
Labeling System. #TLS2200 with Label Part #PTL-45-430 and Font Size
7, and Brady #LAM-3-103 clear polyester applied over the top of the label.
SYSTEM DESCRIPTION - POWER CONDUCTOR IDENTIFICATION
A.
Conductors shall be identified with the Brady Handheld Labeling System
#TLS2200 with Label Part #PTL-19-499 and R4310 Ribbon, indicating the
circuit number, wire number or phase letter at every terminal point or
splice. Provide circuit identification of every unspliced conductor within
each junction or pull box. Multi-conductor 6-pair cable is identified with the
Brady Handheld Labeling System #TLS2200 with Label Part #PTL-31-427
and R4310 Ribbon.
B.
The neutral conductor of a multiwire circuit shall be labeled to identify
every circuit that it serves. Labeling shall be attached to the neutral wire
in every junction or device box in which it appears.
ARC FLASH WARNING LABEL
A.
All new electrical systems and major system modifications shall have a
short circuit study performed and arc flash incident energy values
calculated using EDSA 2005 Arc Heat software with the IEEE Standard
1584 calculations.
B.
The results of the EDSA software shall be entered into a MS Excel
spreadsheet as detailed below. This spreadsheet is used by the Brady
label maker as a source database and can be archived for future
label reprinting or system revision.
C.
The layout of the label shall follow the standard BSC Arc Flash label as
detailed on the following pages.
26 05 53 Identification
Issued 6/30/04
Revised 10/17/11
Page 6 of 8
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 05 53
IDENTIFICATION
Beaumont Services Company, LLC.
Arc Flash Label Standard
26 05 53 Identification
Issued 6/30/04
Revised 10/17/11
Page 7 of 8
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 05 53
IDENTIFICATION
Beaumont Services Company, LLC.
Arc Flash Label Standard
26 05 53 Identification
Issued 6/30/04
Revised 10/17/11
Page 8 of 8
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
PART 1: GENERAL
1.01
SYSTEM DESCRIPTION - WIRING DEVICES
A.
All receptacles connected to emergency circuit shall be “red”.
B.
All receptacles connected to UPS circuits fed by emergency power shall be “red”.
They shall also have an orange cover plate.
C.
Receptacles with surge protection shall be blue and have an indictor light and
audible alarm to indicate malfunction.
D.
Install tamper resistant receptacles in pediatric and psychiatric care areas and
other similar use areas.
E.
Convenience Receptacle Requirements. Convenience receptacles shall be
specification grade, except hospital grade receptacles shall be used in the areas
listed below:
1.
All patient care areas including patient toilet rooms shall be hospital grade.
2.
All emergency center patient care areas shall be hospital grade.
3.
All surgical suites/operating areas shall be hospital grade.
4.
All critical care areas shall be hospital grade.
5.
All corridors shall be hospital grade,.
6.
Other areas requiring hospital grade devices by code.
F.
Plug-in Strip shall utilize standard 20 ampere, 125 volt, 2 pole, 3 wire, duplex
receptacles spaced 18 inches on centers, wired with single or multiple circuits, as
indicated on Drawings, enclosed in a surface mounted steel raceway. Multiple
circuit plug-in strips shall be wired with receptacles connected alternately. Plug-instrips shall accept standard size receptacles. Plug-in strips that utilize single
receptacles in a pre-molded wiring harness shall not be used.
G.
Lighting connected to the Critical Branch of the Emergency System shall be
locally switched. Lighting switches used to control lighting connected to the
Critical Branch shall be illuminated, ivory, locator types with single, two pole or four
pole as required for control scheme. The switch shall have an illuminated
toggle; i.e. the toggle shall be illuminated (through the translucent ivory toggle)
when the switch is in the “off” position. During a utility power outage the
illuminated toggle will indicate to the staff that generator power is being
supplied to the lighting in the room.
1.
Life Safety Branch wiring shall not be controlled by local switching. Egress
lighting, as required for NPFA 101, shall be panel switched and shall be
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 1 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
connected to the Life Safety Branch of the Emergency system It shall only
be controlled at the panel, or with a “no-off-position” switching arrangement
(three-way switch) as allowed by the NEC.
H.
Pilot light switches shall be used where illumination can not be seen from switch
location; e.g. when a switch on the outside of an air handling unit controls lighting
inside the air handling unit enclosure.
I.
In general, lighting switches shall be located in multiple and convenient locations
so as to encourage energy conservation.
J.
Lighting switches in public corridors shall be key operated.
K.
After wiring connections have been made to wiring devices, the terminals shall be
taped to insulate energized parts from contact with the grounded surfaces of the
outlet box. Wiring devices with an approved terminal guard feature do not require
taping.
L.
Dimmers.
1.
Dimmers shall be sized so that load is a maximum of 80% of the rated load
of the device.
2.
Dimmer control shall be linear slide type with positive “on-off” switch.
3.
Dimmers shall be equipped with “RFI” filters.
4.
Dimmers shall meet the latest ANSI/IEEE Standard C62.41, tested to
withstand voltage surges of up to 600 volts and current surges of up to 2000
amps without damage.
M.
Motion sensors shall have manual override features to allow lighting to be turned
on if the sensor malfunctions.
N.
In addition to individual built-in toggle switches, counter light fixtures in large rooms
with multiple under counter the fixtures shall be controlled by a master switch
located at the door. The switch shall have an illuminated toggle pilot light to
indicate that the power to the fixtures is available.
O.
Single phase motor loads shall not share a circuit with lighting or power
receptacles. Connect all single and three phase motor loads to independent
circuits.
P.
Receptacles shall be installed so that the grounding pin is on top for vertically
installed devices, and the grounding pin is to the left (neutral slot on the top) for
receptacle mounted horizontally.
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 2 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
Q.
1.02
Device Testing
1.
The physical integrity of each receptacle shall be confirmed by visual
inspection.
2.
The continuity of the grounding circuit in each electrical receptacle shall be
verified
3.
Correct polarity of the hot and neutral connections in each electrical
receptacle shall be confirmed with a testing device design for the purpose.
4.
The retention force of the grounding blade of each electrical receptacle
(except locking-type receptacles) shall be not less than 115 g (4 oz).
SYSTEM DESCRIPTION - WIRING CONNECTIONS
A.
B.
C.
Connectors for copper conductors
1.
In general, wiring shall be connected to wiring devices by the use of crimp
connector. Crimp Connectors for Pigtail Splicing Conductors Up To and
Including No. 10 AWG: Solderless type with a metallic insert crimp
connector within a plastic insulating cover having a temperature rating of
105 deg C, 600 volts.
2.
Connectors for Straight Splicing Conductors Up To and Including No. 10
AWG: Solderless compression type.
3.
Twist-On Connectors for Pigtail Splicing Up to and Including No. 10 AWG:
Metal wire spring pressure type connector with thermoplastic insulated
cover with positive grip design having a temperature rating of 105 deg. C
and a voltage rating of 600V.
Lugs for terminating copper conductor
1.
Lugs for Terminating Power Conductors Up To and Including No. 8 AWG:
Solderless type, manufacturer's standard, unless otherwise specified.
2.
Lugs for Terminating Power Conductors No. 6 AWG and Larger: Solderless
compression type, one hole for No. 6 AWG through No. 4/0 AWG inclusive,
and two hole for larger sizes.
3.
Lugs for Terminating Control and Switchboard Wiring: Solderless
compression type with tinned ring tongue.
Terminal blocks
1.
Terminal Blocks for Use in Control Wiring of Control Panels and Terminal
Cabinets: Molded barrier type rated 30 amperes, 600 volts, with washer
head binding screws and white marking strip.
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 3 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
1.02 PRODUCTS
A.
Wiring Devices
1.
Convenience Receptacles
20 Ampere Duplex Convenience Receptacles for 120 Volt, Single Phase
Service: Straight blade, 2 pole, 3 wire, NEMA configuration 5-20R, rated 20
amperes, 125 volts, specification grade, for back and side wiring.
2.
a)
Specification Grade:
i.
Eagle 5362 Series
ii.
Hubbell 5362 Series
iii.
Leviton 5362 Series
iv.
Pass & Seymour 5362-A Series
b)
Hospital Grade:
i.
Hubbell 8300 Series
ii.
Leviton 8300 Series
iii.
Pass & Seymour 8300 Series
c)
Hospital Grade – Emergency:
i.
Same as Hospital Grade, but red in color.
Special Receptacles
a)
Ground-Fault Interrupter: Duplex, 2 pole, 3 wire, grounding type,
rated 20 ampere, 125 volt, NEMA configuration 5-20R.
b)
Specification Grade:
i.
Hubbell GF-5362 Series
ii.
Leviton 6899 Series
iii.
Pass & Seymour 2091Series
c)
Hospital Grade
i.
Hubbell GF8300 Series
ii.
Leviton 6899HG Series
iii.
Pass & Seymour 2091-HG Series
d)
Isolated Ground Receptacles: Duplex, 2 pole, 3 wire, isolated ground
type, orange color or orange triangle on the face of receptacle,
straight blade, rated 20 ampere, 125 volts, NEMA configuration 520R.
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 4 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
e)
Specification Grade:
i.
Hubbell IG5362 Series
ii.
Leviton 5362IG Series
iii.
Pass & Seymour IG 6300 Series
f)
Hospital Grade:
i.
ii.
iii.
Hubbell IG8300 Series
Leviton 5362IG Series
Pass & Seymour IG 8300 Series
g)
Surge Suppression Receptacles: Duplex, 2 pole, 3 wire, surge
suppression type, straight blade, rated 20 ampere, 125 volts, NEMA
Configuration 5-20R.
h)
Specification Grade:
i.
Hubbell 5362-S (Blue Face), 5362-I (Ivory Face)
ii.
Leviton 5380-B (Blue Face), 5380-I (Ivory Face)
iii.
Pass & Seymour 5362BLSP (Blue Face), 5362ISP (Ivory
iv.
Face)
i)
Hospital Grade:
i.
Hubbell 8300HS (Blue Face), 8300HIS (Ivory Face)
ii.
Leviton 8380-B (Blue Face), 8380-I (Ivory Face)
iii.
Pass & Seymour 8300 BLSP (Blue Face), 8300 ISP (Ivory
iv.
Face)
j)
Hospital Grade – Emergency:
i.
Same as Hospital Grade, but red in color.
k)
Tamper Resistant Receptacles: Duplex, 2 pole, 3 wire, grounding
type, rated 20 ampere, 125 volts, NEMA configuration 5-20R.
Receptacle shall not operate if an object is inserted into only one
blade opening.
l)
Hospital Grade:
i.
Hubbell HBLSG63H Series
ii.
Pass & Seymour SG63-H Series
iii.
Cooper TR830 Series
m)
Hospital Grade – Emergency:
i.
n)
Same as Hospital Grade, but red in color.
Twist –lock Devices
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 5 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
3.
o)
Single Flush Twist-Lock Receptacle: Receptacles shall be twist-lock
type, heavy duty construction, specification grade, grounding type, of
the voltage and current characteristics required for the equipment
indicated. Manufacturer shall match those of the convenience
receptacles.
p)
Cord Type Twist-Lock Male Plug: Plug shall be twist-lock type with
nylon body for use with strain relief grips, heavy duty construction,
specification grade, grounding type, of the voltage and current
characteristics required for the equipment indicated. Manufacturer
shall match those of the convenience receptacles.
q)
Drop Cord Twist-Lock Female Connector: Female connector shall be
twist-lock type with nylon body for use with strain relief grips, heavy
duty construction, specification grade, grounding type, of the voltage
and current characteristics required for the equipment indicated.
Manufacturer shall match those of the convenience receptacles.
r)
Receptacles for Laser Equipment:
1)
Straight blade, 2 pole, 3 wire, NEMA configuration L5-30R,
rated 30 ampere, 125 volts, grounding type with stainless steel
plate engraved “Laser”. Provide one matching plug.
i.
Hubbell 2610A, with stainless steel plate 7118 and
matching plug 2611.
ii.
Leviton 2610, with stainless steel plate 84020-40 and
matching plug 2611.
2.)
Straight blade, 2 pole, 3 wire, NEMA configuration L6-30R,
rated 30 ampere, 250 volts, grounding type with stainless steel
plate engraved “Laser”. Provide one matching plug.
i.
Hubbell 2620A, with stainless steel plate 7118 and
matching plug 2621.
ii.
Leviton 2620, with stainless steel plate 84020-40 and
matching plug 2621
Light Switches:
a)
Switches for Controlling Lighting Directly on AC Systems in General:
Toggle operated, ivory, nylon, heavy duty, flush, quiet type, with
provision for back and side wiring, and rated 20 amperes, 120/277
VAC.
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 6 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
B.
c)
Specification Grade, Lock Type (Key Operated):
i. Hubbell HBL1221LCN through HBL1223LCN Series with
#HBL1209 keys.
ii. Leviton 1221-2L through 1224-2L Series with #55500 keys.
iii. Pass & Seymour 20AC1L through 20AC4L with #500K keys.
d)
Specification Grade, Lighted Toggle – Emergency: Ivory, nylon,
toggle, light on with load off:
i. Hubbell HBL1221ILCN(Single Pole).
ii. Hubbell HBL1223ILCN(Three-Way).
e)
Specification Grade, Double Pole, Standard Toggle for control of
view boxes connected to Hospital Isolation Panels:
i. Hubbell HBL1222I
ii. Leviton 1222-2
iii. Pass & Seymour CSB220
Manual Dimmers for Outlet Box Mounting
Leviton "82000" Series (Incandescent) and “86000” Series (Fluorescent).
Lithonia "DSD" Series.
Lutron "Diva" Series.
Prescolite "Element" Series.
Pass & Seymour 91000 Series (Incandescent) and 93000 Series
(Fluorescent).
Plug-In Strips:
1.
D.
Specification Grade, Standard Toggle:
i. Hubbell HBL1221ICN through HBL1224ICN Series
ii. Leviton 1221-2 through 1224-2 Series
iii. Pass & Seymour CSB120 through CSB420.
Dimmers
1.
2.
3.
4.
5.
6.
C.
b)
Wiremold G3000 Series with standard 20-ampere, 125-volt receptacles as
specified above.
Connectors for copper conductors
1.
Connectors for Straight Splicing Conductors Up To and Including No. 10
AWG: Solderless compression type.
a)
b)
Thomas & Betts "Sta-Kon"
Burndy "Hydent"
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 7 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
2.
Twist-On Connectors for Pigtail Splicing Up to and Including No. 10 AWG:
Metal wire spring pressure type connector with thermoplastic insulated
cover with positive grip design having a temperature rating of 105 deg. C
and a voltage rating of 600V.
a)
b)
3.
Crimp Connectors for Pigtail Splicing Conductors Up To and Including No.
10 AWG: Solderless type with a metallic insert crimp connector within a
plastic insulating cover having a temperature rating of 105 deg C, 600 volts.
a)
b)
4.
Thomas & Betts 54500 Series
Burndy type YS-L
ILSCO CT or CTL
Connectors for 3-Way Splicing Conductors No. 8 AWG and Larger:
Solderless compression type.
a)
b)
E.
Buchanan #2011S (crimp connector) and #2014 (splice cap insulator)
Ideal #411 (crimp connector) and #417 (wrap cap insulator)
Connectors for Straight Splicing Conductors No. 8 AWG and Larger:
Solderless compression 2-way type.
a)
b)
c)
5.
3M "Scotchlok"
Ideal "Wire-Nut"
Thomas & Betts 54700 Series
Burndy YS-T
Lugs
1.
Lugs for Terminating Power Conductors No. 6 AWG and Larger: Solderless
compression type, one hole for No. 6 AWG through No. 4/0 AWG inclusive,
and two hole for larger sizes.
a)
b)
c)
2.
Burndy Type YA-L
Thomas & Betts Series
ILSCO 54000 CR
Lugs for Terminating Control and Switchboard Wiring: Solderless
compression type with tinned ring tongue.
a)
b)
Burndy "Hydent"
Thomas & Betts "Sta-Kon"
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 8 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 05 83 – WIRE CONNECTIONS AND CONNECTING DEVICES
F.
Terminal blocks
1. Terminal Blocks for Use in Control Wiring of Control Panels and Terminal
Cabinets: Molded barrier type rated 30 amperes, 600 volts, with washer
head binding screws and white marking strip.
a)
b)
c)
d)
G.
Electrical splicing kits:
a)
H.
Scotch 82
Aluminum Joint Compound:
a)
b)
I.
Cutler-Hammer, Inc., Bulletin 10987
General Electric EB-5
Marathon 2000 Series
Square-D
Burndy "Penetrox A"
Thomas & Betts No. 21059
Insulating tape
1. General Use Tape:
a)
b)
Scotch 33 Plus
Okonite Type CLF Series 602-20
2. High Temperature Area Tape:
a)
Scotch 27
3. Outdoor Use Tape:
a)
Scotch 88
26 05 83 Wiring Connections & Connecting Devices
Issued 6/30/04
Revised 10/17/11
Page 9 of 9
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 09 00
1.01
ELECTRICAL MONITORING & CONTROL SYSTEM
WBH ROYAL OAK EMERGENCY POWER SUPPLY SYSTEM
A.
B.
The Beaumont emergency power supply systems (EPSS) contain
generators, automatic transfer switches (ATS), and uninterruptible
power supplies (UPS) monitored by a Square D PowerLogic® SCADA
server in the facilities electrical shop.
1.
Any addition of a generator, ATS, or UPS to the EPSS shall
include adding the new devices into the EPSS monitoring system
and the server configuration.
2.
Any removal of an existing generator, ATS, or UPS from the
EPSS shall include removing the devices from the EPSS
monitoring system and the server configuration.
3.
Any reclassification or renaming of an existing generator, ATS,
or UPS in the EPSS shall include changing the name of the
device in the EPSS monitoring system server configuration.
When adding a new ATS or UPS into the EPSS, the following
procedure shall be followed.
1.
The contractor shall purchase a programmable logic controller
(PLC) ATS Interface enclosure from Square D PowerLogic®.
This shall be the same product as was supplied to BSC for the
existing EPSS.
a)
This enclosure shall be installed as close to the ATS as is
practical.
2.
The contractor shall purchase sufficient engineering labor from
Square D PowerLogic® for on-site programming and
configuration to add the new devices into the system.
3.
The contractor shall connect the ATSs to the interface PLC
enclosure using the same wiring methods, including interface
relays and terminal strip wiring, as in the original EPSS
monitoring project.
a)
This includes the Belden 8723, 4 conductor, 22awg,
shielded twisted pair cable (or equivalent) for Modbus
RS485 communications between the ATSs and the PLC.
26 09 00 Electrical Monitoring & Control System
Issued 7/12/2007
Revised 10/17/11
Page 1 of 3
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DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 09 00
ELECTRICAL MONITORING & CONTROL SYSTEM
b)
4.
5.
This includes the Belden 27616, 8 conductor, 16awg,
600V, non- shielded cable (or equivalent) for 24V dc
and I/O.
The ATS Interface enclosure or UPS added to the EPSS will
require a connection to the LAN from the closest communication
closet.
a)
The LAN connection box will be mounted inside the ATS
Interface enclosure, as was done in the original project.
The LAN connection for the UPS will be mounted on the
wall next to the unit.
b)
There shall be static IP addresses provided by WBH
Communications before Square D PowerLogic®
can begin to develop the programming to add the devices
into the EPSS monitoring system.
The UPS shall be supplied with an Ethernet communications
card including an RJ-45 port. This card shall be connected to
the LAN connection box described in 1.01, B4, a) above using a
patch cord.
a)
This card shall be capable of being monitored by a web
browser using the manufacturer’s on-board web page and
by the EPSS monitoring system using SNMP or Modbus
RTU.
i.
ii.
iii.
iv.
6.
Liebert
MGE Pulsar EX
MGE Galaxy, Comet EX
Eaton Powerware
IntelliSlot Web Card
Minislot 66244
Traverse 66074
Connect UPS-X
The contractor shall connect hospital UPS 120V power to the
ATS Interface enclosure and the communications closet.
a)
This may involve installing the smallest practicable
120/208V UPS receptacle panel near the ATSs, if this is
not already available.
b)
One circuit from the receptacle panel shall supply the ATS
Interface panel, and the second shall supply the
communication closet which connects the EPSS devices
to the LAN.
26 09 00 Electrical Monitoring & Control System
Issued 7/12/2007
Revised 10/17/11
Page 2 of 3
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 09 00
2.01
ELECTRICAL MONITORING & CONTROL SYSTEM
7.
There shall be additional labor cost in the project for BSC TIG
department to modify the AutoCAD® one-line electrical drawing
into a format that is compatible with the EPSS monitoring system
graphics. There will be labor charges for BSC Engineering to add
the new system into the remainder of the EPSS documentation.
8.
Below is a typical representation of the EPSS inside the hospital.
WBH TROY EMERGENCY POWER SUPPLY SYSTEM
A.
The WBH Troy emergency power supply system (EPSS) contains
automatic transfer switches monitored by an Asco Thin-Web sever in
the facilities electrical shop.
B.
The automatic transfer switches shall be equipped with an ASCO
device “85L” ASCO power management and an ASCO device “72E”
Ethernet connectivity module to allow communication and control
through the Thin Web server.
26 09 00 Electrical Monitoring & Control System
Issued 7/12/2007
Revised 10/17/11
Page 3 of 3
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 11 00
PART 1
1.01
480 Volt Substations
GENERAL REQUIREMENTS
SYSTEM DESCRIPTION
A.
The 480 volt double ended substation shall have the following features.
1.
A graphic marking system on the switchgear that mimics the bus
bars and identifies the feeder breaker connections as in a one-line
diagram.
a)
b)
2.
Both Main breakers and the Tie breakers will be provided with a
lockable switch allowing for the operator to impose a temporary
instantaneous trip setting for the purposes of arc flash protection of
personnel working on the feeder breaker sections.
a)
3.
An example of this would be the Arcflash Reduction
Maintenance System™ from Eaton Corp.
The circuit breaker trip units for both of the main breakers, the tie
breaker, and all feeder breakers shall be of the same type. These
trip units shall be capable of monitoring current and voltage for the
purposes of calculating watts and watt-hour values for the energy
billing software in the BSC PowerNet normal power monitoring
system.
a)
4.
This graphic mimic bus shall be installed on the front and
rear of the switchgear.
The feeder breakers and future positions will be labeled with
engraved laminated plastic nameplates on the front and rear
of the switchgear.
An example of this would be Digitrip 1150+™ by Eaton
Electrical.
The PLC controlling the automatic transfer and manual operations
shall be controlled with a color touch screen operator interface
device.
a)
b)
26 11 00 480 Volt Substations
This operator interface device shall display a one-line
diagram of the substation when in automatic transfer mode.
The one-line diagram shall change colors based on the
status of the breakers in the system.
This operator interface device shall allow the adjustment of
time delay values used in the automatic operations.
Issued 6/30/04
Revised 10/17/11
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Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 11 00
480 Volt Substations
c)
d)
This operator interface device shall display alarm messages
in case of loss of phase voltage or other cause of automatic
operation that shall remain displayed until acknowledged by
an operator.
This operator interface device shall allow manual control in
open and closed transition mode.
i.
ii.
iii
iv
e)
f)
5.
An example of this device would be PanelMate Power Pro
1700™ by Eaton Electrical.
The PC-based operator interface programming software and
all necessary communication cables shall be provided by the
manufacturer to allow BSC to create archive copies of the
application software in the unit.
The programming software and all necessary communication
cables for the PLC controlling the automatic transfer and manual
operations shall be provided by the manufacturer.
a)
b)
6.
The closed transition feature enables BSC to transfer
the switchgear to a single-ended state and retransfer
to normal condition without impacting the environment
of care for hospital patients.
The closed transition mode shall be allowed only
when the pistol grip control switch is placed in bypass
mode.
The closed transition shall be initiated only by the
operator interface device and shall select which
breaker will be open after a momentary period where
both mains and the tie are closed.
This closed transition period shall be documented by
the switchgear manufacturer to last a maximum of 80
milliseconds in duration.
An example of the PC software would be WinGPC™
software for the D50™ plc by Eaton Electrical.
For the example of a D50™ plc, there would be a RS232
cable and RS232-to-RS485 converter module required.
The plc ladder logic application provided with the switchgear shall
be provided in a hard-copy printout in the O & M manual.
a)
26 11 00 480 Volt Substations
This printout will be annotated with instruction and rung
comments that allow a person to become familiar with the
sequence of operation of the switchgear.
Issued 6/30/04
Revised 10/17/11
Page 2 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 11 00
7.
480 Volt Substations
The switchgear shall be provided with provisions for BSC supplied
120vac emergency power, in addition to an internal UPS for PLC
CPU power, in the case of loss of power to both transformers in the
substation.
a)
b)
8.
The main bus metering device, for example the DP4000™ by Eaton
Electrical, shall be provided with a separate source power supply
module supplied by the internal UPS in the switchgear. This will
allow the meter in the switchgear to ride through a power loss until
the external emergency control power arrives.
a)
9.
Without control power the Tie breaker would not close in the
case of loss of power to both transformers within 3 seconds.
The main bus metering and circuit breaker trip unit
communication to the Eaton Electrical PowerNet normal
power monitoring system would also be lost.
The manufacturer shall provide the means for all 120V
control power of the switchgear to transfer from internal
control transformer power to external emergency control
power by providing all internal switching and a terminal strip
for BSC to terminate incoming 120vac wiring.
An example for a 24vdc UPS is the IQDP4120 by Eaton
Electrical.
The switchgear shall contain infrared sight glasses mounted on the
front and rear panels of the switchgear to allow for regular infrared
thermography of the electrical connections and bus bars.
a)
b)
c)
26 11 00 480 Volt Substations
The sight glasses shall be compatible with infrared
thermography cameras by Flir Systems and Fluke model Ti25.
An example of this would be the HWK-075-C-L by Hawk IR
and IRISS.
The sight glass manufacturer should be requested to provide
the recommended installation locations for optimum viewing
of the equipment.
Issued 6/30/04
Revised 10/17/11
Page 3 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 11 00
1.02
480 Volt Substations
SEQUENCE OF OPERATIONS
A.
The switchgear shall have the following automatic sequence of operations.
1.
Loss of source voltage to main breaker Left.
a)
b)
c)
d)
2.
Return of normal voltage to main breaker Left, following sequence
1 above.
a)
b)
c)
d)
3.
Abnormal voltage detected at main breaker Right.
Time delay 3 seconds (Adjustable).
Main breaker Right opens.
Tie breaker closes.
Return of normal voltage to main breaker Right, following sequence
3 above.
a)
b)
c)
d)
5.
Normal voltage returns to main breaker Left.
Time delay 20 minutes (Adjustable).
Main breaker Left closes.
Tie breaker opens.
Loss of source voltage to main breaker Right.
a)
b)
c)
d)
4.
Abnormal voltage detected at main breaker Left.
Time delay 3 seconds (Adjustable).
Main breaker Left opens.
Tie breaker closes.
Normal voltage returns to main breaker Right.
Time delay 20 minutes (Adjustable).
Main breaker Right closes.
Tie breaker opens.
Loss of voltage to main breaker Left and main breaker Right. If loss
of voltage occurs to both main breakers within the time delay of 3
seconds (Adjustable), the Tie breaker will not close without external
control power.
a)
b)
c)
d)
e)
f)
g)
26 11 00 480 Volt Substations
Loss of voltage to main breaker Left.
Time delay 3 seconds (Adjustable).
Main breaker Left opens.
Tie breaker closes.
Loss of voltage to main breaker Right
Time delay 3 seconds (Adjustable).
Main breaker Right opens.
Issued 6/30/04
Revised 10/17/11
Page 4 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION GUIDELINES AND STANDARDS
SECTION 26 11 00
6.
480 Volt Substations
Return of normal voltage to main breaker Right, following sequence
5 above.
a)
b)
c)
d)
7.
Return of normal voltage to main breaker Left, following sequence
5 above.
a)
b)
c)
d)
8.
Normal voltage returns to main breaker Right.
Main breaker Right closes.
Tie breaker closes, if it did not close in sequence 5 above.
Upon return of normal voltage to main breaker Left,
sequence 2 will be followed.
Normal voltage returns to main breaker Left.
Main breaker Left closes.
Tie breaker closes, if it did not close in sequence 5 above.
Upon return of normal voltage to main breaker Right,
sequence 4 will be followed.
Return of normal voltage to main breaker Left and main breaker
Right, following sequence 5 above.
a)
b)
c)
d)
e)
f)
26 11 00 480 Volt Substations
Normal voltage returns to main breakers Left and Right.
Main breaker Left closes.
Tie breaker closes, if it did not close in sequence 5 above.
Time delay 20 minutes (Adjustable).
Main breaker Right closes.
Tie breaker opens
Issued 6/30/04
Revised 10/17/11
Page 5 of 5
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESGIN/CONSTRUCION STANDARDS AND GUILDLINES
SECTION 26 18 36
FUSES
PART 1: GENERAL
1.01
SYSTEM DESCRIPTION
A.
Provide a spare set of fuses for each project. The quantity of fuses shall
be determined by taking 10% of the totals of each type used to complete
construction, but in no case shall it be less than one of each type used.
B.
For unit substations with 4800-volt primary fuses provide one set of spare
fuses to match those selected for coordination. Provide a painted steel
fuse storage cabinet in the substation room large enough to store the spare
set of fuses.
C.
Fuses: shall be non-renewable high interrupting capacity
D.
Fuses for power feeders and/or branch circuits rated 600 ampere or lower:
UL class RK1 current-limiting type with 200,000 ampere interrupting rating.
E.
Fuses for power feeders rated 601 ampere or greater: UL class L currentlimiting type with 200,000 ampere interrupting rating
F.
Lighting feeders and/or lighting panels: UL class RK1 current-limiting type
with 200,000 ampere interrupting rating.
G.
Motors: UL class RK1, dual element, time-delay, current limiting with
200,000 interrupting rating.
H.
Lighting fixture ballasts: in-line fused in ballast compartment as
recommended by ballast manufacturer.
1.02 PRODUCTS
Fuses
A.
Fuses for power feeders and/or branch circuits rated 600 ampere or lower:
UL class RK1 current-limiting type with 200,000 ampere interrupting rating.
1.
2.
B.
Fuses for power feeders rated 601 ampere or greater: UL class L currentlimiting type with 200,000 ampere interrupting rating.
1.
2.
26 18 36 Fuses
Bussmann Low-Peak LPN-RK and LPS-RK
Ferraz Shawmut A2D-R and A6D-R
Bussmann Low-Peak Hi-Cap KRP-C
Ferraz Shawmut A4BQ
Issued 6/30/04
Revised 10/17/11
Page 1 of 2
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESGIN/CONSTRUCION STANDARDS AND GUILDLINES
SECTION 26 18 36
C.
D.
Lighting feeders and/or lighting panels: UL class RK1 current-limiting type
with 200,000 ampere interrupting rating.
1.
Bussmann Limitron LPN-RK and A6D-R
2.
Ferraz Shawmut A2D-R AND A6D-R
Motors: UL class RK1, dual element, time-delay, current limiting with
200,000 interrupting rating.
1.
2.
26 18 36 Fuses
FUSES
Bussmann Low-Peak LPN-R and LPS-R
Ferraz Shawmut A2D-R and A6D-R
Issued 6/30/04
Revised 10/17/11
Page 2 of 2
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 33 53 – UNINTERRUPTIBLE POWER SUPPLY
PART 1: GENERAL
1.01
SYSTEM DESCRIPTION.
A.
This section specifies single and three-phase, on-line, static-type, Uninterruptible
Power Supplies (UPS). Installations shall be complete and include: transient
voltage surge suppression (TVSS), input harmonics reduction filter, rectifiercharger, battery, battery disconnect device, inverter, static bypass transfer switch,
external manually operated maintenance bypass switch, internal automatically
operated bypass/isolation switch, local UPS alarm/monitoring panel, provisions for
connection to the hospital’s “Emergency Power Monitoring System”, safety
features as called for below, and (when wet cell batteries are used) a battery
monitoring/testing system.
B.
Static, double inversion, UPS is the “Standard”, but new technologies; i.e.,
flywheel, compressed air and fuel cells, will be considered as they are developed
and tested. Final decision on the best choice for the application shall be made
after an evaluation of the options.
C.
Distribution systems for UPS’s 10KVA and larger shall be designed with
provisions for connecting an external load bank for full capacity testing.
D.
UPS’s 10KVA and larger shall be load bank tested on site after installation.
Document the test in a continuous time line, digitally recorded, format. A
successful commissioning test shall show a continuously usable power output at
rated load as the normal input supply is switch on and off. The test shall include
operating the UPS using generator power as well as utility power.
E.
All UPS’s supporting critical systems shall be supplied by an emergency
generator power source.
F.
All UPS’s shall have the ability to directly communicate with the “Emergency
Power Monitoring System”.
G.
The harmonic filtering provided by some UPS manufactures, to limit input
harmonics as required in this standard, may introduce leading (capacitive) power
factor into the system and cause problem with generator voltage regulation. This
condition shall be investigated by the consulting engineer, and mitigated if
needed.
H.
UPS’s shall have the ability to compensate for input frequency deviations of +/1.5Hz because they will be connected to the essential electrical system (generator
power) that may have small frequency variations. The UPS shall be investigated
for compatibility with the generator source.
I.
When the UPS utilizes wet cell batteries a dedicated battery room shall be
provided. The battery room shall have all required safety features including: eye
26 33 53 Uninterruptible Power Supply
Issued 6/30/04
Revised 10/17/11
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 33 53 – UNINTERRUPTIBLE POWER SUPPLY
wash, spill containment, seismic bracing, and ventilation. Battery terminals and
interconnecting bus shall be protected with insulating covers.
J.
Cooling for the UPS, and ventilation for the battery room, shall be on emergency
power.
K.
UPS’s 30KVA and larger shall utilize wet cell batteries. UPS’s less than 30KVA
shall utilize sealed “maintenance-free”, VRLA, batteries. Flywheel energy storage
systems shall be considered in lieu of storage batteries.
L.
UPS shall supply output power that has 5%, or less, total harmonic, current,
distortion. The UPS shall not reflect more than 10% total harmonic current
distortion into the input, supply side, source
M.
UPS components shall be protected from surges that enter at each AC power
input connection including main disconnect, static bypass transfer switch, and
maintenance bypass/isolation switch. Protection shall be provided for the rectifiercharger, inverter, controls, and output components.
N.
Output voltage regulation shall be +/- 1% steady state, and +/- 8% at 50% load
step.
O.
Uninterruptible power supplies shall have a fail-safe, synchronized, bypass
feature that automatically switches the load to the supply source, without power
interruption to the load, if there is an internal UPS failure.
P.
Uninterruptible power supplies that are hard wired into the distribution system
supply shall have an external maintenance bypass configuration, which will allow
the UPS to be taken off line, and be completely removed from the distribution
system, without interruption to the load. An internal maintenance bypass, that is
integral to the UPS, will not fulfill this requirement because the UPS cannot be
physically removed without interrupting power to the load.
Q.
Provide a remote annunciation alarm panel for UPS when it is not located in close
proximity to the loads it supplies. The users of the equipment being supplied by
the UPS shall receive notification when the UPS is operating on battery, or in bypass. The annunciator shall be audible and visual. The audible alarm shall have
a silencing feature that will shut off the audible alarm, but keep the visual signal
active until the UPS is returned to its normal operating condition.
R.
A placard shall be posted at the remote annunciator with instructions listing phone
numbers and procedures to follow in the event of an alarm.
S.
Wet cell batteries.
1.
Battery racks shall be steel members powder-coated with ANSI #61 gray,
acid-resistant, epoxy paint. Racks shall be suitable for a Seismic Zone 1
26 33 53 Uninterruptible Power Supply
Issued 6/30/04
Revised 10/17/11
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Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 33 53 – UNINTERRUPTIBLE POWER SUPPLY
location. Racks shall be braced to prevent movement in the horizontal
plane.
T.
2.
Provide and install disconnect switch and fuses in battery interconnect
cabling.
3.
Each battery rack must stand alone with a minimum clearance of 4 inches
from any other object (walls, other racks, etc.).
4.
Each frame within a rack must be anchored to the floor. Anchoring shall
meet all local, state, and/or federal codes.
5.
All battery interconnecting bus and terminals shall be provided with plastic
insulating covers to shield connecting components and protect personnel
from inadvertent contact of energized parts.
Design considerations.
1.
UPS’s generate heat, noise and magnetic flux in varying degrees.
Consider these factors in determining the location of the UPS, and
batteries.
2.
Elevated temperatures reduce battery life. Room design shall maintain a
room temperature that will not decrease the battery warranty (72-76°F).
Install over temperature alarm in battery and UPS rooms. Provide
adequate ventilation to prevent hydrogen accumulation. Provide alarm if
ventilation, air flow, is disrupted.
3.
Wet cell shall be provided with spark arrestors.
4.
Do not locate sprinklers, or HVAC ducts, directly over UPS. Do not install
piping or ductwork in UPS and battery rooms, unless they serve these
rooms.
5.
On large UPS systems, consider the benefits of using a separate by-pass
source. If only one common source is used for both the normal input and
the by-pass the by-pass will not be available if the normal fails due to a
cable fault, loose terminal connections, malfunction circuit breaker tripping,
etc.
6.
As previous specified, the input current drawn by the UPS shall contain no
more than 10% total harmonic distortion. Some manufactures may need to
add optional input filters to comply with this requirement. These filters often
contain capacitors that can cause over voltage problems in the emergency
generator supply. Design the system so that the UPS’s are not the first
load(s) to be connected to the generator. Balance the positive power factor
load of the UPS capacitors with negative reactive loads; timing the reactive
loads to be connected first.
26 33 53 Uninterruptible Power Supply
Issued 6/30/04
Revised 10/17/11
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Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 33 53 – UNINTERRUPTIBLE POWER SUPPLY
7.
UPS’s are given a unique identification number and label by the Beaumont
Services Company, Facilities Management Department. Consulted with
the Electrical Shop and get a unique UPS designation. Use this
designation in the construction documents and for the labeling the
equipment.
8.
Consider the environmental and safety issues associated with UPS
batteries when locating and designing the system; i.e., eye wash
equipment; insulation of electrical components, spill containment, hydrogen
ventilation..etc.
9.
Install 4-inch concrete,” housekeeping”, pad under UPS, and a spill
containment curb around wet cell batteries. Provide absorbent, spill
containment, pillows under battery rack(s).
10.
Provide remote manual emergency stop controls, or automatic stop, when
required by code.
1.02 PRODUCTS
A.
Approved UPS Manufacturers are: Pillar, MGE(deleted), Powerware, and Liebert.
Any other manufacturer must be approved (in writing) by BSC before the
specifications and drawings are issued for construction.
B.
Approved battery monitoring/testing systems are: BTECH Inc. and ALBER.
26 33 53 Uninterruptible Power Supply
Issued 6/30/04
Revised 10/17/11
Page 4 of 4
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
PART 1: GENERAL
1.01
SYSTEM DESCRIPTION
A.
The lighting system shall be designed and installed in compliance with
the Michigan Energy Code.
B.
Illumination Levels. Generally, the following maintained lighting levels will
be provided:
Area
Footcandles
Admitting
Ambulance (local)
Anesthetizing
Autopsy and morgue
Autopsy, general
Autopsy table
Morgue, general
Museum
Cardiac function lab
Central Sterile Supply
Inspection, general
Inspection
At sinks
Work areas, general
Processed storage
Charting
Conference Rooms
Corridors
Nursing areas-day
Nursing areas-night
Operating areas
Delivery
Recovery
Labs
Suites
Service
Critical Care areas
General
Examination (local) fixed
Surgical task lighting
Handwashing
Cystoscopy room
26 50 00 Lighting Systems
Issued 6/20/04
Notes
55-65
75-100
75-100
75-100
300-500
30-50
75-100
150-175
75-100
150-200
75-100
30-50
30-50
50-55
50-55
Surgical
Suite
2
20-25
10-15
75-100
75-100
75-100
75-100
75-100
75-100
30-50
150
750-1000
150-200
75-100
Revised 10/17/11
2
Page 1 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
Area
Footcandles
Day Room/Dining Room
Dialysis unit, medical
General
Reprocessing
Dialysate Room
Dietary
General
Dish Washing
Tray Assembly
Food Storage
Electrical Rooms
Elevators
EKG and specimen room
General
On equipment
Emergency Outpatient
General
Exam/Treatment (fixed)
Endoscopy rooms
General
Peritoneoscopy
Culdoscopy
Examination & treatment rooms
General
Exam/treatment
Eye surgery
Fracture room
General
Local
Handwash locations
Inhalation therapy
Janitors closet
Laboratories
General
Specimen collection
Tissue laboratories
Microscopic reading room
Gross specimen review
Chemistry rooms
Bacteriology rooms
General
26 50 00 Lighting Systems
Issued 6/20/04
Notes
30-50
30-50
75-100
30-50
30-50
50-75
50-75
20-30
15-25
15-20
7.5-10
15-20
75-100
150-175
75-100
30-50
30-50
50-55
150
150-200
Maybe
Portable
2
75-100
150-200
30-50
30-50
20-30
50-55
75-100
150-200
30-50
150-200
75-100
75-100
Revised 10/17/11
Page 2 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
Area
Footcandles
Reading culture plates
Hematology
Laundry
Preparation and tubs
Washer & Dryer
Linens
Sorting soiled linen
Central (clean) linen room
Sewing room, general
Sewing room, work area
Linen closet
Lobby
Locker rooms
Maintenance department
Mechanical Rooms
Medical illustration studio
Medical rooms
Nurseries
General
Exam/treatment
Nurses Stations
General
Desk
Corridors, day
Corridors, night
Medication station
Nourishment room
Obstetric delivery suite
Labor rooms
General
Local
Birthing room
Delivery area
Scrub, general
General
Delivery table
Resuscitation
Post-delivery recovery area
Substerilization room
Occupational therapy
Work area, general
26 50 00 Lighting Systems
Issued 6/20/04
Notes
150-200
75-100
30-50
30-50
30-50
30-50
30-50
75-100
7.5-10
15-20
20-25
30-40
15-25
150-200
75-100
15-20
150
2
May be
portable
30-50
50-60
15-20
3-5
75-100
30-50
15-20
75-100
150-200
3
75-100
150-20
4
300-500
75-100
30-50
30-50
Revised 10/17/11
Page 3 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
Area
Footcandles
Work tables or benches
Office Areas
Patient Holding Areas
Patient/Resident rooms
General (entire room)
Observation – night light
Critical examination
Notes
75-100
55-65
75-100
20-30
3-5
75-100
Reading Location
2
Maybe
Portable
30-50
(Reading lamp or over bed fixture)
Toilets
LDR/LDRP task lighting as required
Pharmacy
General (entire room)
Alcohol vault
Laminar flow bench
Night light
Parental solution room
Physical therapy departments
Gymnasiums
Tank rooms
Treatment cubicles
Post-anesthetic recovery room
General
Local
Pulmonary function laboratories
Radiology (Imaging suite)
Diagnostic section
General
Waiting area
Radiography/fluoroscopy room
Film sorting
Barium kitchen
Radiation therapy section
General
Waiting area
Isotope kitchen
General
Benches
Computerized radiotomography section
Scanning room
Equipment maintenance room
26 50 00 Lighting Systems
Issued 6/20/04
30-50
75-100
30-50
150-200
3-5
30-50
30-50
30-50
30-50
75-100
750-1000
75-100
2
20-25
20-25
3-5
150-200
75-100
2
20-25
7.5-10
75-100
75-100
7.5-10
75-100
Revised 10/17/11
Page 4 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
Area
Footcandles
Registration
Retail – General
Solarium
General
Local for reading
Stairways
Storage rooms
Surgical suite
Operating room general
Operating table
Scrub room
Instruments and sterile supply room
Clean up room, instruments
Anesthesia storage
Substerlizing room
Surgical induction room
Surgical holding area
Tel/Com rooms
Toilets/Bathing
General (includes water closets,
Notes
55-65
55-65
15-20
30-50
20-25
20-25
2
150-200
2
4
150-200
30-50
75-100
30-50
30-50
75-100
75-100
50
2
2
30-50
shower/tub)
Night lighting
Utility room (clean and soiled)
General
Work counter
Waiting areas
General
Local for reading
Note 1:
Note 2:
Note 3:
Note 4:
C.
3-5
30-50
50-75
15-20
30-50
Multi-level lighting, incandescent dimmed.
Multi-level lighting and/or dimming as required.
Supplemental illumination as in delivery room (2500 fc minimum)
must be available.
Operating Table requires additional 2500 fc (minimum).
Lighting Fixtures
1.
In an effort to limit the number replacement lamps that need to be
kept in stock, new fixtures must use lamps that are already being
used on the campus. See the appendix for approved “Lighting
Fixture Schedule” and list of lamps.
26 50 00 Lighting Systems
Issued 6/20/04
Revised 10/17/11
Page 5 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
D.
E.
2.
All “lay-in” grid fixtures shall have earthquake clips installed and
shall be supported independently of the ceiling grid system using a
minimum of two (2) safety wires on diagonally opposite corners of
the fixture.
3.
All fluorescent fixtures surface mounted to the suspended grid
ceiling shall be supported independently of the grid. “Caddy” clips
shall not be used.
Lighting Fixture Lenses
1.
Prismatic lenses shall be extruded of 100% virgin acrylic and shall
be a minimum thickness of 0.156. Lenses larger than 2 foot by 4
foot shall be a minimum thickness of 0.187.
2.
Plastic Lens will conform to State of Michigan Bureau of Fire
Services Rules #248, 249 and 250.
3.
All lighting fixtures shall have lenses to protect the lamps in patient
care areas, including corridors where patients are likely to be
transported.
4.
Overlays lens in parabolic fixtures shall be 100% virgin acrylic.
5.
Overlays lens in open down lights shall be clear tempered glass.
Lamps
1.
Incandescent: Extended service, rated at 130 volts and 2500
hours rated life, inside frosted.
2.
Incandescent Halogen PAR: Tungsten Halogen Capsule PAR
lamps, rated at 130 volts and 2000 hours minimum rated life.
3.
Fluorescent T-5: Programmed start, nominal 48 inch long, 28 watt,
miniature bipin lamp, 2900 lumen 4100K, 82 CRI (minimum)
4.
Fluorescent T-8: Instant/Rapid start, 48 inch long, 32 watt,
medium bi-pin lamp, 2850 lumens, 4100K, 75 CRI (minimum).
5.
Fluorescent Compact: Type and wattage as indicated, preheat,
4100K, 82 CRI (minimum).
6.
Metal Halide is the preferred HID source.
7.
High pressure sodium lamps used not used on the site.
26 50 00 Lighting Systems
Issued 6/20/04
Revised 10/17/11
Page 6 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
F.
Ballasts
1.
G.
H.
I.
In general, provide two-lamp ballasts No more than two lamps will
be served by one ballast. Do not use three, or four, lamp ballasts,
particularly when the loss of one ballast can cause a black-out of
an entire room.
Exit lights
1.
Exit lights shall be powered from the “Life Safety Branch” of the
“Essential Electrical Distribution System.
2.
Exit lights shall be LED type.
3.
In special circumstances where the exit fixture will be subject to
physical damage from materials management carts use selfilluminating exit on hinged mounting. This type of exit must be
located adjacent to an unswitched, general illumination, fixture on
emergency power.
Emergency Battery Units
1.
Where the Codes require battery powered lighting in addition to
generator power lighting, evaluate the cost effectiveness of a
central battery/inverter system in lieu of multiple, individual, battery
units.
2.
Battery units shall be used in areas where critical patient
procedures are done, and where total blackout due to power
failure is possible. Battery units shall be used in addition to
general lighting connected to the Essential Electrical System.
3.
Battery units shall be powered from the critical branch and be
connected, ahead of all switching, to the branch circuit feeding the
lighting in the room.
Central battery/inverter systems
1.
Where multiple battery unit would be required evaluate the life
cycle cost of using a central battery system in lieu of individual
battery units.
2.
Systems shall comply with the requirements of NFPA 101.
3.
Provide an external by-pass to allow the unit to be removed
without disrupting the power to the fixtures.
4.
System shall utilize VRLA batteries.
5.
System shall be sized to accommodate 30% expansion.
26 50 00 Lighting Systems
Issued 6/20/04
Revised 10/17/11
Page 7 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
J.
K.
L.
Lighting controls
1.
All three and four lamp fixtures will be dual switched: one ballast
controlling inner lamp(s) and one ballast controlling outer lamps.
2.
Motion sensors shall be considered for all areas where the space
could be left unoccupied for longer than three hours.
Outdoor Lighting Poles
1.
Furnish pole, arm and fixture assemblies capable of withstanding a
100 MPH wind velocity for the total assembly.
2.
Provide separate conduit(s) for low voltage wiring in light pole (i.e.,
security camera, phone, card reader, etc.
3.
Provide adequate wiring space in pole base for wiring, fuses, and
ballast (if remote ballast is required).
Outdoor Power Signs
1.
All outdoor signs, that have power, shall be provided with a
disconnecting means, such as a switch, accessible from the
exterior of the sign
2.
The sign shall have a pilot light, to display that power is available,
connected to the line side of all disconnecting means for the sign.
PART 2: PRODUCTS
2.01
MATERIALS
A.
Lighting Fixtures
1.
B.
See Appendix for approved “Lighting Fixture Schedule”.
Fluorescent Ballasts
1.
Fluorescent Electronic Program Instant Start: Energy saving, high
power factor, non-PCB, Class "P" approved. Individually fuse with
Bussmann Type GMF fuses in HLR holders. Except in recessed
fixtures, fuses shall be accessible from outside the fixture chassis.
Use fuse rating as recommended by fixture manufacturer. Furnish
commercial and recessed type fixtures with ballasts having a
NEMA sound rating of "A" or better. All ballasts shall match the
lamps specified. Ballasts shall have the following characteristics:
a)
b)
c)
26 50 00 Lighting Systems
Power Factor: 95% minimum at full light output.
Total Harmonic Distortion: 10% maximum.
Crest Factor: 1.7 maximum.
Issued 6/20/04
Revised 10/17/11
Page 8 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
d)
e)
f)
2.
Manufacturers: Subject to compliance with requirements, provide
products of one of the following:
a)
b)
c)
d)
3.
e)
f)
Power Factor: 95% minimum at full light output.
Total Harmonic Distortion: 10% maximum.
Crest Factor: 1.7 maximum.
Temperature Rise: 30 degree C. maximum over 40 degree
C. Ambient.
Continuous Dimming: 100%-10% light output.
"End of Lamp Life" circuitry.
Manufacturers/Products: Subject to compliance with
requirements, provide products of one of the following:
a)
b)
c)
5.
Advance
General Electric
MagneTek Triad
Osram Sylvania
Fluorescent Electronic Rapid Start Dimming: Energy saving, high
power factor, non-PCB, Class "P" approved. Individually fuse with
Bussmann Type GMF fuses in HLR holders. Except in recessed
fixtures, fuses shall be accessible from outside the fixture chassis.
Use fuse rating as recommended by fixture manufacturer. Furnish
commercial and recessed type fixtures with ballasts having a
NEMA sound rating of "A" or better. All ballasts shall match the
lamps specified. Ballasts shall have the following characteristics:
a)
b)
c)
d)
4.
Temperature Rise: 30 degree C. maximum over 40 degree
C. Ambient.
Continuous Dimming: 100%-10% light output.
"End of Lamp Life" circuitry
Advance Mark VII Series
Lutron "EC010"
Motorola
Fluorescent Low Frequency Electronic (EMI/RFI sensitive
locations): Energy saving, rapid start, high power factor, non-PCB,
Class "P" approved. Individually fuse with Bussmann Type GMF
fuses in HLR holders. Except in recessed fixtures, fuses shall be
accessible from outside the fixture chassis. Use fuse rating as
recommended by fixture manufacturer. Furnish commercial and
recessed type fixtures with ballasts having a NEMA sound rating of
"A" or better. All ballasts shall match the lamps specified. Ballasts
shall have the following characteristics:
26 50 00 Lighting Systems
Issued 6/20/04
Revised 10/17/11
Page 9 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
a)
b)
c)
d)
e)
6.
Manufacturers: Subject to compliance with requirements, provide
products of one of the following:
a)
C.
Advance - PowrKut
Metal Halide Ballast
1.
High power factor, non-PCB, lead type constant wattage
autotransformer with minimum output wattage regulation within
plus or minus 5% for input voltage variation of +10%. Individually
fuse all ungrounded legs of ballasts. Use fuse ratings as
recommended by manufacturer. Use ballasts rated for operation
in 55 deg. C ambient temperature for fixtures mounted indoors,
except where otherwise specified in the fixture specification. Use
ballasts rated for reliable starting down to minus 20 deg. F for
fixtures/lamps mounted outdoors
2.
Manufacturers: Subject to compliance with requirements, provide
products of one of the following:
a)
b)
D.
Power Factor: 90% minimum.
Total Harmonic Distortion: 20% maximum.
Crest Factor: 1.7 maximum.
Temperature Rise: 25 degree C. maximum over 40 degree
C. Ambient.
"End of Lamp Life" circuitry.
Advance
MagneTek Triad
Incandescent Lamps
1.
Extended service, rated at 130 volts and 2500 hours rated life,
inside frosted.
2.
Manufacturers: Subject to compliance with requirements, provide
products of one of the following:
a)
b)
c)
3.
General Electric
Osram Sylvania
Philips
Incandescent Halogen PAR: Tungsten Halogen Capsule PAR
lamps, rated at 130 volts and 2000 hours minimum rated life.
26 50 00 Lighting Systems
Issued 6/20/04
Revised 10/17/11
Page 10 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
4.
Manufacturers: Subject to compliance with requirements, provide
products of one of the following:
a)
b)
c)
E.
General Electric
Osram Sylvania
Philips
Fluorescent Lamps
1.
Fluorescent T-8: Instant/Rapid start, 48 inch long, 32 watt,
medium bi-pin lamp, 2850 lumens, 4100K, 75 CRI (minimum).
2.
Manufacturers/Products: Subject to compliance with
requirements, provide products of one of the following:
a)
b)
c)
General Electric
Osram Sylvania
Philips
3.
Fluorescent T-5: Programmed start, nominal 48 inch long, 28 watt,
miniature bi-pin lamp, 2900 lumen 4100K, 82 CRI (minimum).
4.
Manufacturers/Products: Subject to compliance with
requirements, provide products of one of the following:
a)
b)
Osram Sylvania
Philips
5.
Fluorescent T-5HO: Programmed start, nominal 48 inch long, 54
watt miniature bi-pin lamp, 5000 lumen, 4100K, 82 CRI (minimum).
6.
Manufacturers/Products: Subject to compliance with
requirements, provide products of one of the following:
a)
b)
Osram Sylvania
Philips
7.
Fluorescent Compact: Type and wattage as indicated, preheat,
4100K, 82 CRI (minimum).
8.
Manufacturer: Subject to compliance with requirements, provide
products of one of the following:
a)
b)
c)
26 50 00 Lighting Systems
General Electric
Osram Sylvania
Philips
Issued 6/20/04
Revised 10/17/11
Page 11 of 12
Jones Lang LaSalle @ Beaumont Health System, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 26 50 00 - LIGHTING SYSTEMS
9.
Metal Halide Lamps
10.
Manufacturers: Subject to compliance with requirements, provide
products of one of the following:
a)
b)
c)
F.
Exit Lighting
1.
Manufacturers: Subject to compliance with requirements, provide
products of one of the following:
a)
b)
2.
G.
General Electric
Osram Sylvania
Philips
Sure-Lite
Hubbell
Self power exit
Emergency Battery
1.
Emergency battery units shall be recessed with minimum of two 12
watt tungsten halogen (h1212T-275 lumen) heads, maintenancefree 12 volt sealed lead calcium battery and self diagnostics.
2.
Manufacturers: Subject to compliance with requirements, provide
products of one of the following:
a)
b)
c)
d)
26 50 00 Lighting Systems
Exide Cat.# CPH56-H1212W
Dual-Lite Cat.#TB-521-12-T (12V,12W)
Hubbell Cat. # CL-12-50-2-D
Prescolite Cat.#ERT5-CVS-ELH-H1212
Issued 6/20/04
Revised 10/17/11
Page 12 of 12
BEAUMONT HOSPITALS
IT Communications
Section 27 00 00
TELEPHONE / DATA Requirements
Updated 02/23/2011 by Doug Meyers
Approvals
Name
Tim Purves
Kathy Grady
Dave Colburn
Mark R. Taylor
Doug Meyers
Title
Director
Manager (Communications)
Manager (Communications)
Manager ( Network)
Infrastructure System Analyst 1
Table of Contents
SECTION 1: CLOSET ROOM REQUIREMENTS
SECTION 2: VOICE BACKBONE
SECTION 3: FIBER BACKBONE
SECTION 4: STATION CABLING
SECTION 5: CLOSET TERMINATIONS
SECTION 6: CATEGORY 6 TEST PROCEDURES
SECTION 7: CATEGORY 5 TEST PROCEDURES
SECTION 8: MULTI-MODE FIBER BI-DIRECTIONAL LIGHT LOSS TEST PROCEDURES
SECTION 9: SINGLE MODE FIBER BI- DIRECTIONAL LIGHT LOSS TEST PROCEDURES
SECTION 10: MULTI AND SINGLE MODE OTDR TEST PROCEDURES
SECTION 11: PREFERRED VENDOR
Section 1
Telephone Equipment Room Requirements
Ceiling Height:
Minimum 8 ft. 6 in.
Doorways:
Minimum 36 in., swing inside
Flooring:
Tile or sealed cement floors
Environmental Control:
64 F to 75 F, humidity 30% to 55%
24 hours per day
False Ceilings:
Not permitted
Fire Protection:
High temperature Sprinkler heads or dry methods
Pre-action sprinkler system (no water in pipe until called for by smoke
detector.)
Main Equipment rooms only
Flood Prevention:
Avoid placing below or adjacent to areas of potential water hazard
Floor loading:
Minimum 2.4kPA
Lighting:
Minimum equivalent of 50-foot candles measured at 3ft above finished
floor
Location:
To minimize the horizontal cable lengths (275ft) locate the closet as close
as possible to the center of, and on the same floor as the area it is
intended to serve.
Ensure that closets are accessible from a hallway or other common area.
Telecommunications closets must be dedicated to the telecommunications
function and related support facilities.
Power:
A minimum of two dedicated 3-wire 120V AC 20A duplex receptacles on
one dedicated emergency power circuits.
Located at least 6in. but no higher than 18 inches above the finished floor.
One outlet on each wall. Conduits to be buried in the walls NOT surface
mounted.
Provide 2ea quad receptacle to each relay rack; outlets must be two
separate dedicated 120VAC 20A circuits one on Emergency Power and
one on UPS Power (see diagram for more detail and field verify with
WILLIAM BEAUMONT HOSPITAL COMMUNICATIONS DEPARTMENT
before placement)
Ground bus location determined by William Beaumont Hospital
Communications Department.
2
Security:
Closets are required to be locked
Size:
Closet size will be no less than 10ft x 10ft.
Main Switch room will be no less than 13ft x 14ft
Wall Linings:
Line one closet wall with trade size ¾” 4’ x 8’ fire rated plywood and paint
with off white fire retardant paint. WBH Communications staff will
determine which wall.
Conduits, raceways,
If possible, locate backbone sleeves, slots, conduits and ducts:
on the
left side of the closet. Trays and conduits located within the ceiling shall
protrude into the closet a minimum of 1” to 2”. All wall and floor
penetrations shall maintain fire rating of structure.
Fire alarm:
Install smoke detectors in all telephone rooms
Other Systems:
Communications equipment rooms and closets are for Communications
use only and not to be used for housing other systems or as a pass
through for other systems. This includes electrical panels, nurse call
panels, fire and security alarm panels, water and gas (oxygen, vacuum,
etc…) pipes and p-tube systems. If any other systems must be colocated, then closet/equipment room size MUST increase accordingly.
*Contractor must verify part numbers and/or comcodes.
3
Prototype Equipment Room
With Avaya ATM/PNC GMCC EPN
February 23, 2011
14 feet
4 Foot Clearance
19 inch
Station Patch
Panel
Rack
4 Foot Clearance
4 - 4 Inch
Conduits
To The
Right of Way
Quad Outlet UPS Power
Ameritech
Interfaces
19 inch
Data
Equipment
Rack
1 - Cisco 4500
2 Power Supplies 220 Volt 16 Amps each
NEMA 6-20 Twist Lock
Combined Heat 1500 BTU per Hour
19 inch
Fiber Patch Panel
Rack
NOTE: Ladder rack
running around the
perimeter of the room and
over the data racks
32 inches
Ameritech Rack Power
Requirements
Non-UPS Power
1- 220 Volt 30 Amp
1 - 110 Volt 20 Amp
Rack supplied by
Ameritech for
DS-3
26 1/2 X 23 1/2
3 1/2 Foot Clearance
EPN
27 inches
All 110 Outlets to be
located under the plywood
backboard
3 1/2 Foot Clearance
12 1/2 Feet
Quad Outlet Emergency
Power
Standard Network Equipment All requires UPS
Power
1 - Marconi 200 BX
2 Power Supplies 110 Volt 3 Amp each
Slack
Manager
39 inches
Riser Wall-field
Fire Rated Plywood
covering al walls from
ceiling to minimum18
inches above floor.
Port Wall-field
EPN Power Requirements
UPS Power
17.5 Amp Draw
208 VAC, 60 Hz
30 Amp Breaker
NEMA L6-30R Outlet
Generates 1662 BTU per Hour
Assumptions
1. Only one EPN will be used at the site... No space for expansion.
2. Equipment Room MDF will also be used for IDF purposes. Hence the station cable racks
3. UPS will be housed in separate electrical room.
4. No other equipment or panels, electrical, nurse call, HVAC, Fire Alarm, will be housed in the room. If so additional floor space will be
needed.
5. All Riser Cable/Fiber will be fed up through the ceiling. If coming up through the floor additional space will be needed.
4
Prototype Equipment Room
For Avaya G3si Telephone System
February 23. 2011
14 feet
4 Foot Clearance
4 - 4 Inch
Conduits
To The
Right of Way
Quad Outlet UPS power
4 Foot Clearance
19 inch
Station Patch
Panel
Rack
Standard Network Equipment All requires UPS
Power
1 - Marconi 200 BX
2 Power Supplies 110 Volt 3 Amp each
19 inch
Data
Equipment
Rack
Ameritech
Interfaces
Ameritech Rack Power
Requirements
Non-UPS Power
1- 220 Volt 30 Amp
1 - 110 Volt 20 Amp
Combined Heat 1500 BTU per Hour
19 inch
Station Patch
Panel
Rack
NOTE: Ladder rack
running around the
perimeter of the room and
over equipment racks
32 inches
Rack supplied by
Ameritech for
DS-3
26 1/2 X 23 1/2
Heat generated 1000
BTU per hour
3 1/2 Foot Clearance
G3si
27 inches
All 110 Outlets to be
located under the plywood
backboard
3 1/2 Foot Clearance
12 1/2 Feet
Quad outlet Emergency
Power
1 - Cisco 4500
2 Power Supplies 220 Volt 16 Amps each
NEMA 6-20 Twist Lock
Slack
Manager
39 inches
Riser Wall-field
Fire Rated Plywood
covering al walls from
ceiling to minimum18
inches above floor.
Assumptions
Port Wall-field
G3si Power Requirements
2 Cabinets - Each requiring:
UPS Power
6 Amp Draw
120 VAC, 60 Hz
15 Amp Breaker (total of 2)
NEMA 5-15R Outlet (total of 2 duplex on
separate circuits)
Both cabinets combined generates 900
BTU per Hour
1. Only one EPN will be used at the site... No space for expansion.
2. Equipment Room MDF will also be used for IDF purposes. Hence the station cable racks
3. UPS will be housed in separate electrical room.
4. No other equipment or panels, electrical, nurse call, HVAC, Fire Alarm, will be housed in the room. If so additional floor space will be
needed.
5. All Riser Cable/Fiber will be fed up through the ceiling. If coming up through the floor additional space will be needed.
5
Prototype Equipment Room
With Prologix PBX
February 23,2011
11 feet
3 Foot Clearance
19 inch
Station Patch
Panel
Rack
Quad UPS Power
Riser Wall-field
19 inch
Data
Equipment
Rack
3 Foot Clearance
Standard Network Equipment All requires
UPS Power
1 - Marconi 200 BX
2 Power Supplies 110 Volt 3 Amp each
1 - Cisco 4500
2 Power Supplies 220 Volt 16 Amps each
NEMA 6-20 Twist Lock
Combined Heat 1500 BTU per Hour
Quad Emergency Power
NOTE Ladder rack running
around perimeter of room
and over Data Racks.
3 1/2 Foot Clearance
12 1/2 Feet
19 inch
Station Patch
Panel
Rack
4 Cabinet Prologix System
Mounts Directly to the wall
Measurements
12 Inches deep
49.5 inches wide
78 inches tall
All 110 Outlets to be
located under the plywood
backboard
Desk
Fire Rated Plywood
covering al walls from
ceiling to minimum18
inches above floor.
Assumptions
Avaya Prologix PBX
Prologix Power Requirements
4 Cabinets - Each requiring:
UPS Power
3.5 Amp Draw
120 VAC, 60 Hz
15 Amp Breaker (total of 2)
NEMA 5-15R Outlet (total of 2 duplex on
separate circuits)
All 4 cabinets combined generates 1134
BTU per Hour
1. Avaya wall mounted Prologix PBX will be used at the site (600 port 200 trunk capacity)... No space for expansion.
2. Equipment Room MDF will also be used for IDF purposes. Hence the station cable racks
3. UPS will be housed in separate electrical room.
4. No other equipment or panels, electrical, nurse call, HVAC, Fire Alarm, will be housed in the room. If so additional floor space will be
needed.
5. All Riser Cable/Fiber will be fed up through the ceiling. If coming up through the floor additional space will be needed.
6
Prototype Closet
February 23, 2011
10 Feet
NOTE: Cabl-o-Fil rack
running around the
perimeter of the room and
over the equipment racks
19 inch
Station Patch
Panel
Rack
Cisco 4500 Chassis
2 Power Supplies
110 Volt 16 Amp each
UPS Required for patient
care facilities
800 BTU heat dissipation
3 Feet Clearance
19 inch
Data Equipment
&
Fiber
Rack
6 – inch cable
management between
racks
All 110 Outlets to be
located under the plywood
backboard
4 Feet Clearance
19 inch
Station Patch
Panel
Rack
Fire Rated Plywood
covering 1l wall ceiling to
18 inches above floor.
Assumptions
1.
2.
3.
4.
5.
6.
Multiple Comm Closets with Riser Fiber Pass through required.
UPS Power required at all hospital sites & patient care facilities (not required at non-patient care locations)
UPS will be housed in separate electrical room.
No other equipment or panels, electrical, nurse call, HVAC, Fire Alarm, will be housed in the room. If so additional floor space will be needed.
Sufficient station ports to require dedicated rack for mounting patch panels. (A 7 foot rack can hold 15 48-port patch panes which is 360 locations.)
Chassis based switch required for survivability, throughput, expandability, wireless. (A Cisco 45000 takes up about 1/2 of a 7 foot rack)
7
VOIP Equipment room
February 23, 2011
10 Feet
NOTE: Cabl-o-Fil rack
running around the
perimeter of the room and
over the equipment racks
19 inch
Station Patch
Panel
Rack
Cisco 4500 Chassis
2 Power Supplies
110 Volt 16 Amp each
UPS Required for patient
care facilities
800 BTU heat dissipation
3 Feet Clearance
19 inch
Data Equipment
&
Fiber
Rack
6 – inch cable
management between
racks
All 110 Outlets to be
located under the plywood
backboard
4 Feet Clearance
19 inch
Station Patch
Panel
Rack
Fire Rated Plywood
covering 1l wall ceiling to
18 inches above floor.
Assumptions
1.
2.
3.
4.
5.
6.
Multiple Comm Closets with Riser Fiber Pass through required.
UPS Power required at all hospital sites & patient care facilities (not required at non-patient care locations)
UPS will be housed in separate electrical room.
No other equipment or panels, electrical, nurse call, HVAC, Fire Alarm, will be housed in the room. If so additional floor space will be needed.
Sufficient station ports to require dedicated rack for mounting patch panels. (A 7 foot rack can hold 15 48-port patch panes which is 360 locations.)
Chassis based switch required for survivability, throughput, expandability, wireless. (A Cisco 45000 takes up about 1/2 of a 7 foot rack)
8
Section 2
Voice Backbone
Lower Level
From Main Switch Room to Lower Level closet. The SYSTIMAX cable
and size (ARMM or ANMW Types) will be determined by Beaumont
Hospitals Communications Department. Cable must be grounded on
both ends
Floor Closets
From Lower Level to Floor closet will be an 400 pair ARMM. Cable must
be grounded on both ends.
Termination Blocks:
SYSTIMAX 110 Field-Terminated Patch Panel Kit
Product number: 110PA2-300FT
Vertical X/C Troughs
Required for all 110 blocks, minimum of 2 troughs per 110 block. Both
types are listed but only one will be used.
Product number: 110A3 Trough w/legs
Product number: 110B3 Trough without legs
Horizontal X/C troughs:
Required for horizontal X/C management. Troughs will be located on top
of every 110 column. Both types are listed, but only one type will be used.
Product number: 188B1 without legs
Product number: 188B2 with legs
Protector Panel:
Required when cable is entering or exiting buildings
SYSTIMAX188-Type Multipair Protector Panel
Product number: 188ENA1-100G
Protector Unit:
Required when cable is entering or exiting buildings
SYSTIMAX 3B-EW Individual Protector Unit
Product Number: 3B1-EW
Wall Penetrations:
All conduits entering from the outside must be sealed around the conduit
as well as the inside of the conduit.
*Contractor must verify part numbers and/or comcodes.
*Must meet requirements for SYSTIMAX Certification
* Contractor to supply equipment
9
Section 3
Fiber Backbone
Innerduct:
SELECT ONE OF FOLLOWING:
Provide three (3) 1.25” PE innerduct for outdoor applications. Install in
existing vacant 4” conduit.
Provide three (3) 1.25” PVC innerduct for indoor applications for MDF to
Main Lower Level Closet. Install in existing vacant 4” conduit.
Provide two (2) 1.25” PVC innerduct for indoor riser applications. Install in
existing vacant 4” conduit.
Provide two (2) 1,25” Plenum innerduct for plenum applications. With 6” x
6” pull boxes at all riser closets
Lower Level
From Main Switch Room to Lower Level closet. The SYSTIMAX cable
and size will be determined by Beaumont Hospitals Communications
Department.
Floor Closets
From Main Switch room to Floor closet will be an SYSTIMAX 50 micron
12-strand multi mode fiber.
Product number: LazrSPEED 300 P-012-DS-5L-FSUAQ or LazrSPEED
550 (P-012-DS-5K-FSUAQ). Use LazrSPEED 300 if the run is less then
300 meters, LazrSPEED 550 is run is from 300 to 550 meters
Both are plenum rated. Riser Rated is also available – change the P to an
R in first letter or Part Number.
From Main Switch room to floor closet will be an SYSTIMAX 12 strand
Single mode TerraSPEED fiber.
Product number: R-012-DS-8W-FSUYL (Riser Rated) or
P-012-DS-8W-FSUYL (Plenum Rated)
Patch Panels
SYSTIMAX Distribution System for MDF to Lower Level Closets
Product number: 360G2-4U-MOD-SD (760101071) this 4 U sliding shelf
accepts 12 cassettes.
SYSTIMAX Distribution System for Riser closets
Product number: 360 G2-1U-MOD-SD (760103085) this is the 1U shelf
that holds 4 cassetes.
Cassettes with couplers: 360 G2 Cartridge – 12-LC-LS-AQ (760109256)
to be used in above fiber shelves.
Connectors
SYSTIMAX LC connector
Bend Radius:
Minimum bend radius is 10 times the diameter of the fiber cable.
*Contractor must verify part numbers and/or comcodes.
*Must meet requirements for SYSTIMAX Certification
*Contractor to supply equipment.
10
Section 4
Hospital Station Cabling
Station Cabling
SYSTIMAX GigaSpeed XL Cable PVC or Plenum
Product number: 1071 PVC or 2071 Plenum
Color: Blue
OR
SYSTIMAX GigaSpeed 10XD Cable PVC or Plenum
Product number: 1091 PVC or 2091 Plenum
Color: White
Outlets
SYSTIMAX GigaSpeed XL Outlets
Product number: MGS400BH-318
Color: Blue
OR
SYSTIMAX GigaSpeed X10D Outlet
Product number: MGS600-262
Color: White
Faceplate
SYSTIMAX 4 outlet faceplates
Product number: M14L-246
Blanks
SYSTIMAX
Product number: M20AP-246
Station Cabling
Off-Site or Non Patient facility Cabling
Uniprise 55N4 PVC Cat5E
Uniprise 5504 Plenum Cat5E
Uniprise 65N4 PVC Cat 6
Uniprise 6504 Plenum Cat 6.
Outlets, Faceplates and blanks will stay the same as above.
*Contractor must verify part numbers and/or comcodes.
*Contractor to supply equipment.
Station Cable Installation Guidelines
1.) The hospital standard for new construction is three Cat 6 cables. Only exceptions are in specific
areas of the main Royal Oak campus, or otherwise specified by the Beaumont Hospitals
Communications Department.
a.) The hospital standard for all VOIP installations is two Cat 6 cables. These will be
labeled as D,DA…example…1D,1DA
2.) Each cable will be properly marked and labeled at each end. Proper labeling will include a
number that is unique from all others, (i.e.: 1,1A, 2, 2A, etc…) If three cables are pulled in on
new construction jobs the cabling will be as follows: One cable to the wall field and the
11
remaining two cables to the Network rack. These will be labeled as follows:( 1V to the wall
field, 1D, 1DA to the data racks 2V to the wall field, 2D, 2DA to the data racks, etc….)
a) Cables shall be place with sufficient bending radius so as not to kink, shear or damage the cable.
The bending radius must never be less than that specified by the manufacturer.
b) A contractor will terminate all UTP station cables in compliance with SYSTIMAX standards,
both ends. Therefore, proper slack must be maintained at both ends, 2 feet at the wall jack
and at least 30 feet at the communications closet. Cables must be bundled neatly.
c) Contractor will test each cable for near end cross talk (NEXT) in compliance with IEEE standards
for Fast Ethernet, ATM, and Gigabit Ethernet.
d) Contractor will provide complete and accurate cable records. Records must be in a format
determined by William Beaumont Hospital Communications Department.
Cable record Format
Facilitech room number
Cable number
Closet id
e) Cable specifications are as follows:
Cable must be SYSTIMAX UTP four pair, Gigaspeed Cat 6 - 1071 or 2071 (no substitutions) cable
must be IEEE 802.3 100base T compliant. Off campus buildings that may be using tray, rings, or that
are not run in conduit will be SYSTIMAX four pair, Gigaspeed Cat 6 (2071). No substitutions
except where specified GigaSpeed X10D (1091 or 2091).
8.) Must all be installed according to SYSTIMAX guidelines and able to meet all requirements for a
Certified SYSTIMAX Solution with a 20-year warranty.
9.) Acceptable Cable Support Methods (Hospitals):
a) Preferred method for Hospital pathways - Pathways from user location shall be continuous
conduit to cable tray or to Communications Closet
b) Alternative method for Hospital pathways – Conduit from user location past header with 2
inch J-hooks to corridor. Cable in corridor to be in either cable tray or conduit, to the
Communications Closet.
a. 2 inch J-hook capacities are no more than 12 cables or 4 full locations
b. J-hooks to be no more than 4 feet apart
c. All cable must be dressed using Velcro tie wrap
d. Cable Tray will be 12 inches wide and 2 inches deep “CabloFil” tray
e. Maximum fill for this tray is 250 cables or 83 full locations
12
10.) Acceptable Cable Support Methods (Off Campus):
a) Preferred method for Off Campus pathways - Pathways from user location shall be
continuous conduit to cable tray or to Communications Closet
b) Alternative method for Off Campus pathways – Conduit from user location past header with
2 inch J-hooks to corridor. Cable in corridor to be in either cable tray or 4Inch J-hooks, to
the Communications Closet.
a. 2 inch J-hook capacities are no more than 12 cables or 4 full locations
b. 4 inch J-hook capacities are no more than 36 cables of 12 full locations
c. All J-hooks to be no more than 4 feet apart
d. All cable must be dressed using Velcro tie wrap
e. Cable Tray will be 12 inches wide and 2 inches deep “CabloFil” tray
f. Maximum fill for this tray is 250 cables or 83 full locations
Note: Contractor shall work in close cooperation with the Beaumont Hospital
Communications Department and all work shall conform to this specification document.
Should the Beaumont Hospital Communications Department make known to the JLL@BHs
Project Manager an objection to the layout, the JLL@BHS Project Manager shall immediately
notify the architect- engineer or general before proceeding with work.
Conduit Size for Cat 6 cable
Conduit Size
(EMT)
¾”
1”
1-1/2”
2”
3”
4”
Quantity of cables
4
7
16
26
69
116
This will allow for 40 % fill of the conduit and leave 60% spare.
Conduit should not have more than 180 degrees total in conduit run, unless junction
boxes are provided prior to immediately after the 180 degrees has been reached.
Please consult Systimax guidelines in place at time of installation for cable fill for both Cat 6 and 6a
as appropriate.
13
Section 5
Closet Terminations
Voice Termination
SYSTIMAX Field Terminated Wiring Block Kit
Product number: 110AB2-100FT
Data Termination
SYSTIMAX 360 Patchmax GS XLPatch Panel Kit for Cat 6
Product number: 360-PM-GS3-2U-48P 760117366 this panel is now 2U for 48 ports.
For 6A use 360-PM-GS5-2U-48P 760117374
Relay Rack
Ortronics Data Rack (minimum 5ea Main Switch room and 3 ea. in
riser closets)
 Ortronics: Rack Mighty MO 6 - 7’H x 10.5” Channel Depth part #
MM6710
 Ortronics: Vertical Cable Manager – Mighty MO 6 Channel – 6”x8”x7’
with door part # MM6VMD706
 Ortronics: Four Post Server Rack – part # MM107SVR
Patch Cables
SYSTIMAX GigaSpeed patch cords (one pair per location)
Part number: GS8E -7ft and -15ft CPC3312 for Cat 6
For 6A use 360GS10E cords in the same lengths.
Tubular Runway
Cablofil: Cable Tray – 12” W x 2” D x 10’ L (Black) part # CF54/300BL
cable tray shall be installed around perimeter of room and wall to wall
above relay racks
*Contractor must verify part numbers and/or comcodes.
*Contractor to supply equipment
14
Section 6
Standards for Testing and Documentation for Beaumont Hospitals
Certification of an Installed Category 6 Link
Horizontal Limitations: The maximum cable distance from Outlet to patch panel shall be 275 ft, (295
ft) independent of media type.
A
WORK STATION
275 ft
B
PATCH
PANEL
OUTLET
HUB
A or B must not be greater than 14 feet each
Tests to Perform: Length, Near End Cross Talk (NEXT), PSNEXT, FEXT, PSFEXT, RL,
Attenuation, Attenuation to Crosstalk Ratio (ACR), Wire Map, Impedance, Capacitance, Resistance,
Delay, Cable Skew.
Certification tests to be performed using an approved (Level III or Level IV) hand-held tester such as
the Fluke DTX Cable Analyzer series.
The following are the steps required to properly certify an installed link. Employees and contractors
must follow all procedures to ensure proper test results.
Step 1.
Make sure that the Fluke DTX Cable Analyzer series or equivalent level III or Level IV
tester has been fully charged.
Step 2.
Make sure the Fluke DTX Cable Analyzer series or equivalent level III or Level IV
tester’s display indicates that CAT6 Permanent Link or Channel for channel.
Step3.
Review the Fluke DTX Cable Analyzer series or equivalent level III or Level IV tester’s
Permanent Link or Channel calibration procedure and calibrate if needed for the test to
be performed.
Step 4.
Enter the job number into the “Company Name” field.
Step 5.
Attach the Permanent link supplied cable to the permanent link portion of the link and
perform a permanent link test. Press the “Autotest” button and wait until the “PASS”
indicator appears.
15
Certification of an Installed Category 6 Link (continued)
Step 6.
Save the test result using the Circuit ID number designated for that location. (Beaumont
Hospitals Communications Department to designate ID numbers) Repeat step 5 and 6
for all locations to be tested.
Step 7.
Contractor will provide Pass/Fail summary and hard and soft copies of the test results to
the JLL@BHs Project Manager; The PM will forward copies to Beaumont Hospitals
Communications Department.
16
Section 7
Standards for Testing and Documentation for William Beaumont Hospitals
UTP Cable Certification for Gigabit Ethernet
The 1000Base-T standard was developed with the goal of supporting the huge installed base of
Category 5 UTP. However, the complex modulation technology developed for 1000Base-T is
sensitive to cabling performance characteristics that were not defined in the original Category 5E UTP
cabling or testing specifications. Therefore, it will be necessary to test new and existing Category 5E
installations and new Category 6 for compliance with these additional requirements before running
1000Base-T traffic over these cabling runs.
Horizontal Limitations: The maximum cable distance from Outlet to patch panel shall be 275 ft, (295
ft) independent of media type.
A
WORK STATION
275 ft
B
PATCH
PANEL
OUTLET
HUB
A or B must not be greater than 14 feet each
Tests to Perform: Length, Near End Cross Talk (NEXT), PSNEXT, PSELFEXT, Attenuation,
Attenuation to Crosstalk Ratio (ACR), Wire Map, Impedance, Capacitance, Resistance, Delay, Equal
Level Far-End Crosstalk, Return Loss, Delay Skew.
Certification tests to be performed using an approved (Level III or Level IV) hand-held tester such as
the Fluke DSP, or DTX Cable Analyzer series.
The following are the steps required to properly certify an installed link. Contractors must follow all
procedures to ensure proper test results.
The following are the steps required to properly certify an installed link. Employees and contractors
must follow all procedures to ensure proper test results.
Step 1.
Make sure that the Fluke DTX Cable Analyzer series or equivalent level III or IV tester
has been fully charged.
17
Step 2.
Make sure the Fluke DTX Cable Analyzer series or equivalent level III or IV tester’s
display indicates the permanent Link level to be tested. In the options menu choose the
“Performance level” option. Scroll to the type of performance level you will be testing.
I.e. UTP CAT 5E, UTP CAT 6, Permanent Link etc.
Step3.
Review the Fluke DTX Cable Analyzer series or equivalent level III or IV tester’s
Permanent Link calibration procedure and calibrate if needed.
Step 4.
Enter the job number into the “Company Name” field.
Step 5.
Attach the Permanent link supplied cable to the permanent link portion of the link and
perform a permanent link test. Press the “Autotest” button and wait until the “PASS”
indicator appears.
Step 6.
Save the test result using the Circuit ID number designated for that location. (William
Beaumont Hospital Communications Department to designate ID numbers) Repeat step
5 and 6 for all locations to be tested.
Step 7.
Contractor will provide Pass/Fail summary and hard and soft copies of the test results to
the BSC Project Manager; The PM will forward copies to William Beaumont Hospital
Communications Department.
18
Section 8
Standards for Testing and Documentation at William Beaumont Hospitals
Light Loss Testing Multimode Fiber using the Siecor OTS Optical Tester
Customer premises optical fiber has been and continues to be primarily 62.5 / 125 m multimode
fiber unless otherwise specified. All multimode fiber shall be tested at 850 nm and 1300 nm
wavelengths and shall not exceed maximum attenuation of 3.75 dB/km at 850 nm and 1.5 dB/km at
1300 nm.
Establishing Reference Levels: Prior to testing, reference levels must be established.
Step 1.
Connect a short jumper with 5 turns on a 25 mm diameter mandrel wrap for (50um
LOMMF) or 5 turns on a 20 mm diameter mandrel wrap for (62.5um MMF) between the source
OTS and the meter OTS. Set both units to the same wavelength and press TX on the source
unit to turn the transmitter on. The OTS meter will display the coupled output power of the
source, typically around –20 dBm. Press the REF button to reference the power meter so that
it indicates 0.0r (relative loss). Repeat this for each wavelength to be tested, ensuring that both
the optical source and the meter are set to the proper wavelength. For Bi-directional testing,
reverse the source/meter roles of the OTS units and repeat step 1.
* Add Mandrel wrap as described above
JUMPER
OTS
METER
OTS
SOURCE
Step 2.
Connect a short jumper with mandrel wrap as described above to the source OTS and
another known good short jumper to the meter OTS. Connect the two jumpers with coupler of
the same type as the fiber to be tested. Set both units to the same wavelength and press TX
on the source unit to turn the transmitter on. The OTS meter will display the coupled output
power of the source, through the cables you will be using during the test. Note this reference
power level in the space provided on the Fiber Optic Test Sheet. Repeat this for each
wavelength to be tested. If the loss through the test jumpers is less than or equal to 0.5 dB,
both test jumpers are good and will provide a valid test. Otherwise, clean the connectors and
repeat Step 2 until 0.5 dB or better is achieved. If necessary, replace the test jumper(s) and
repeat Step 2.
JUMPER
JUMPER
COUPLER
OTS
SOURCE
OTS
METER
19
Light Loss Testing Multimode Fiber (continued)
Performing a Loss Test:
Disconnect the jumper at the adapter and connect them to the respective patch panels at opposite
ends of the same fiber as shown in the diagram below. Using the OTS Source as the transmitter,
record the loss in dBm displayed by the OTS meter on the Fiber Optic Test Result Sheet. Repeat this
for all wavelengths to be tested.
For bi-directional testing, reverse the roles of the two OTS units and repeat the Loss test for all fibers.
OPTICAL FIBER SYSTEM
JUMPER
JUMPER
PATCH
PANEL
OTS
SOURCE
PATCH
PANEL
OTS
METER
All fiber will be identified and labeled to Beaumont specifications.
Contractor will provide Pass/Fail summary and hard and soft copies of the test results to the
JLL@BHs Project Manager; the PM will forward copies to Beaumont Hospitals Communications
Department.
20
Section 9
Standards for Testing and Documentation at Beaumont Hospitals
Light Loss Testing Singlemode Fiber using the EXFO FTB & Siecor OTS Optical Tester
For growing bandwidth requirements and for longer distance runs, especially in uncontrolled
environments, singlemode fiber is most often used. All singlemode fiber shall be tested at 1310 nm
and 1550 nm wavelengths and shall not exceed maximum attenuation of 0.5 dB/km at 1310 nm and
0.5 dB/km at 1550 nm.
Establishing Reference Levels: Prior to testing, reference levels must be established.
Step 1. This test uses the EXFO OTDR as the source and the Siecor OTS as the meter for the single
mode test. Set the output of the EXFO OTDR single mode module to continuous. Connect a
short jumper between the EXFO single mode module and the meter OTS. Set both units to the
same wavelength and turn the OTDR laser on. The OTS meter will display the coupled output
power of the OTDR source. Press the REF button to reference the power meter so that it
indicates 0.0r (relative loss). Repeat this for each wavelength to be tested, ensuring that both
the optical source and the meter are set to the proper wavelength.
JUMPER
OTS
METER
EXFO OTDR
SOURCE
Step 2.
Connect a short jumper to the EXFO OTDR and a short jumper to the meter OTS.
Connect the two jumpers with coupler of the same type as the fiber to be tested. Set both units
to the same wavelength and turn the OTDR laser on. The OTS meter will display the coupled
output power of the source, through the cables you will be using during the test. Note this
reference power level in the space provided on the Fiber Optic Test Sheet. Repeat this for
each wavelength to be tested. If the loss through the test jumpers is less than or equal to 0.5
dB, both test jumpers are good and will provide a valid test. Otherwise, clean the connectors
and repeat Step 2 until 0.5 dB or better is achieved. If necessary, replace the test jumper(s)
and repeat Step 2.
JUMPER
JUMPER
COUPLER
OTS
METER
21
Light Loss Testing Singlemode Fiber (continued)
Performing a Loss Test:
Disconnect the two jumpers at the adapter and connect them to the respective patch panels at
opposite ends of the same fiber as shown in the diagram below. Using the EXFO OTDR as the
transmitter, record the loss in dBm displayed by the OTS meter on the Fiber Optic Test Result Sheet.
Repeat this for all wavelengths to be tested.
For bi-directional testing, move the OTDR to the opposite end of the fiber to be tested and repeat the
Loss test for all fibers.
OPTICAL FIBER SYSTEM
JUMPER
JUMPER
PATCH
PANEL
EXFO OTDR
SOURCE
PATCH
PANEL
For Bi-directional testing, move equipment to
Opposite ends of the fiber to be tested and repeat test
OTS
METER
Contractor will provide Pass/Fail summary and hard and soft copies of the test results to the
BSC Project Manager; the PM will forward copies to William Beaumont Hospital Communications
Department.
22
Section 10
Standards for Testing and Documentation at William Beaumont Hospitals
OTDR Testing of Singlemode or Multimode Fiber
Singlemode fiber shall be tested at 1310 nm and 1550 nm wavelengths and shall not exceed
maximum attenuation of 0.5 dB/km at 1310 nm and 0.5 dB/km at 1550 nm. All multimode fiber shall
be tested at 850 nm and 1300 nm wavelengths and shall not exceed maximum attenuation of 3.75
dB/km at 850 nm and 1.5 dB/km at 1300 nm.
Step 1
Verify that the OTDR being used is capable of performing tests at the proper
wavelengths and that all test parameters are set according to the fiber manufacturers
specifications.
Step 2.
Connect one end of a 100’ jumper to output of the OTDR and the other end of the 100’
jumper to one end of the fiber to be tested. At the other end of the fiber to be tested connect
another 100’ jumper. The other end of the second 100’ jumper is not connected. These two
100’ jumpers provide a discernable start and end point that is displayed on the OTDR trace.
FIBER
UNDER
TEST
100’
JUMPER
100’
JUMPER
OTDR
Step 3.
Depending on the OTDR in use, Manually or Automatically begin a test sweep. The
sweep result should look similar to the sample below
100’
JUMPER
FIBER
UNDER
TEST
100’
JUMPER
Step 4.
Save the sweep results and perform the test again for all required wavelengths.
Processed results must include a copy of the sweep trace and all results as detailed on
the attached sheet.
Step 5.
Contractor will provide hard and soft copies of the test results to the BSC Project
Manager; the PM will forward copies to William Beaumont Hospital Communications
Department.
23
Section 11
Preferred Vendor list for Communications
1.
Shaw Systems & Integretion (SSI)
Pat Smalarz
24650 Sherwood
Center Line MI, 48015
(586) 427-1015
2.
Industrial Electrical Co.
Tom Darrish
275 E. Milwaukee
Detroit, Michigan 48202
(313) 872-1133
3.
Conti Technologies
John Darrah
6417 Center Drive
Suite 110
Sterling Heights, Mi. 48312
(586) 274-4800
24
Jones Lang LaSalle @ Beaumont Hospitals, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
PART - 1
1.01
GENERAL REQUIREMENTS
GENERAL DESCRIPTION
A.
All fire alarm systems design / installation shall be bid separately from all other
electrical systems (i.e. power, lighting, etc). This portion of the Fire Detection and
Alarm System Standards is to provide requirements for engineering design
services, which shall include, but shall not be limited to, field investigation,
preparation of construction documents and construction administration related to
the installation of, or revisions to, the fire alarm system serving William Beaumont
Hospital(s) and ambulatory care facilities (refer to Beaumont Services Company
Out-building Standard for other types of occupancies).
B.
Engineering services shall be as required for expansion of the existing system.
Engineering Design shall be complete as required for a fully functional system.
System designer shall be pre-qualified and approved by the Fire Protection Work
Group. Current acceptable designer(s) include:
Shaw Systems & Integration (expires 12-2011)
1.02
C.
Engineering design shall be in accordance with these standards. No
modifications to these standards will be accepted without the expressed written
approval of the Fire Protection Work Group. It is the design engineer’s
responsibility to document the Fire Protection Work Group’s approval of any such
modifications prior to the execution of design work.
D.
The latest version of this standard is available online at
www.beaumontservices.com\suppliers.
CODES, STANDARDS, ORDINANCES AND PERMITS
A.
Design shall conform to the requirements of the applicable portions of the
National Fire Protection Association (NFPA) Standards, Guides and
Recommended Practices as well as other Codes and Standards as adopted by
the Authorities Having Jurisdiction:
NFPA 70
NFPA 70B
NFPA 72
NFPA 80
NFPA 80A
NFPA 90A
NFPA 92A
NFPA 96
NFPA 99
NFPA 101
NFPA 221
ADA -
National Electric Code
Recommended Practice for Electrical Equipment Maintenance
National Fire Alarm Code
Standards for Fire Doors and Fire Windows
Recommended Practice for Protection of Buildings from Exterior
Fire Exposures
Standard for the Installation of Air Conditioning and Ventilation
Systems
Recommended Practice for Smoke Control Systems
Standard for Ventilation Control and Fire Protection of Commercial
Cooking Operations
Standard for Health Care Facilities
Codes for Safety to Life from Fire in Buildings and Structures
Standards for Fire Walls and Fire Barriers
Americans with Disabilities Act
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
IFC
MBC
MMC
NEMA
AIA
International Fire Code
Michigan Building Code
Michigan Mechanical Code
Guide for Proper Use of System Smoke Detectors
State of Michigan Barrier Free Requirements
Guidelines for Design and Construction of Hospital and Health
Care Facilities
B.
The cover sheet shall list the codes that are used for the fire alarm design. All
drawings shall state in bold letters, “The Design and Installation Shall Conform to
The William Beaumont Hospital Fire Detection and Alarm System Standards.”
C.
If there is a conflict between the referenced NFPA standards, Federal, State or
Local codes and this specification, it is the Designers responsibility to bring the
conflict to the attention of the “Owner” for resolution. Designer shall not attempt
to resolve conflicts directly with the local authorities unless specifically authorized
by the “Owner.”
D.
All devices, equipment and materials specified shall be new and listed by
Underwriters Laboratories Inc. (ULI) for the intended use. All equipment shall be
installed in accordance with Simplex's recommendations, guidelines and
installation details as well as ULI listing limitations. Compatibility listing
requirements for separate voice, fire alarm systems and smoke detectors shall
be met. Documents shall require that the Contractor provide evidence, with the
submittals, of listings of all proposed equipment and combinations of equipment.
1.
All components for which ULI listing is required shall be listed in the current
edition of the ULI Fire Protection Equipment Directory and shall be
delivered to the project site with factory applied UL stickers. System
components that do not meet these requirements are not acceptable.
2.
Components for which ULI listing is "pending" are not acceptable.
E.
All devices, systems, equipment and materials furnished and installed shall be of
types or models approved by the Authorities Having Jurisdiction for use in
systems and occupancies of this type.
F.
All fire alarm system components shall be catalogued and purchased from
Simplex under Beaumont Services Company, LLC. Pricing agreement and
approved for use on the existing system. SimplexGrinnell shall provide an
itemized quotation showing all appropriate discounted prices.
G.
All wiring shall be specifically approved for fire alarm use, wire and cable shall be
UL Listed and in accordance with local codes and the Authorities Having
Jurisdiction.
H.
Raceways containing conductors identified as "Fire Protective Alarm System"
conductors shall not contain any other conductors serving other systems.
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
1.03
PROJECT DESIGN DRAWINGS
A.
Project design drawings shall be prepared using the current version of AutoCad
in accordance with Beaumont Services Company/Technical Information Group
Standards and shall include the following:
1.
Incorporate the guidelines for drawing layer and standards.
2.
Utilize Beaumont Services Company/Technical Information Group Fire
Alarm symbols, conventions, abbreviations and specialized terminology.
Refer to sheets FASL-1 included in the appendix for standard symbols.
3.
Floor plan drawings at l/8-inch scale generated from the Fire Alarm System
Drawings. Drawings shall depict the required information showing proper
spatial relationships between components, and shall reflect the
corresponding system components as they are to be installed. Floor plans
shall show the following minimal information:
a)
Name of owner and occupant
b)
Location, including street address
c)
Point of compass (north arrow)
d)
Graphical scale indicator
e)
Tower boundaries
f)
Smoke zone boundaries
g)
Rated walls
h)
All room names and numbers
i)
Key plan showing area of renovation or construction within the
hospital or building
j)
Areas which are to be included in the current phase of the work
k)
Preliminary fire alarm device schedule, indicating quantity
4.
Drawing list/index
5.
Each drawing shall be cross-referenced to all related drawings and specific
drawing details as necessary for the design drawings as a whole to clearly
depict the proposed installation.
6.
For drawings that have been revised, show revision (bulletin or addendum)
number and date indicated in the title block with revisions described or
indicated (clouded).
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
7.
B.
Provide Beaumont Services Project Manager name and Project number.
Project design drawings shall be considered “installation drawings.” All devices,
conduit, wiring etc. shall be indicated on plan in the actual location where it is
intended to be installed so that substantial revisions in the field should not be
required. Design drawings should be prepared so that conduit/cable routing,
cable tray, junction box locations, device locations, etc. can be installed where
indicated on plan. Drawings of a schematic nature, or drawings not providing
sufficient detail, are not acceptable. Design drawings shall show the following
information:
1.
Location of existing Simplex Data Gathering Panels in the area of
renovation or construction.
2.
Location of new and existing fire alarm system terminal cabinets, including
Typical Terminal Cabinet Detail. (Refer to sheet FADET-2 contained in the
appendix.)
3.
System network or terminal cabinet risers. For projects where new riser
wiring is required, include the following information:
a)
Number, size and type of system riser conduits/raceways and the
number, size and type of conductors/circuits contained therein.
This information shall be depicted in sufficient detail to identify the
conductors/circuits contained in any particular riser.
b)
The general arrangements of, and interconnections between,
system components on each floor or level of the building.
c)
When multiple risers are required, a single line generic riser
diagram is unacceptable.
4.
Fire alarm system demolition as applicable. Include all fire alarm system
devices to be demolished or relocated.
5.
New 120-volt emergency electrical power (Life Safety Branch) connections,
including circuit breaker number(s) and panel.
6.
Detailed installation information and wiring diagrams for all Fire Alarm
System devices.
7.
When new control panels or terminal cabinets are required, include detailed
wiring diagrams for all alarm control panels, control panel modules, power
supplies, electrical power connections, auxiliary function relays, etc.
Identifying all required terminations.
8.
Sequence of Operation defining how system operates and the interaction of
other systems. Including, but not limited to, mechanical air handling
systems, fire suppression systems, wet chemical systems, pre-action
systems, flooding gas systems, security systems, gas detection systems,
elevator recall systems, smoke control systems, etc.
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
9.
10.
System programming requirements indicating the interaction of fire alarm
input and output devices. Field program information shall include:
a)
Adding or deleting monitor and control points. Change in text
descriptions associated with individual monitor/control points. This
text must be approved by William Beaumont Hospital Security
Department prior to programming.
b)
Device-specific programming for individual monitor points, such as
fire alarm, supervisory alarm, priority 2 alarm, trouble alarm, etc.
c)
Device-specific programming for individual control points, as
defined in Sequence of Operation (see #8 above).
d)
Temporarily bypass control points independent of their associated
monitor points. Use of this feature shall allow any operator
selected detector(s)/zone(s) to be monitored by the system while
inhibiting all alarm inputs except for local display at CRT's and
printers. Access to this feature shall be password protected. A
listing function shall be available to list all bypassed devices/zones
at designated printers and CRT's.
e)
Selective output of signals, by assigned priority, to annunciation
devices including graphic annunciators, CRT's and printers. Each
type of annunciator shall be capable of displaying and/or recording
a different group of signals.
f)
Through programming, addressable monitor and control points
may be combined into logical groups or zones (in software) to the
extent that such grouping does not detract from the required
operation of the system, including resounding of signals
subsequent to actuation of the signal silence switch.
All new and existing fire alarm system devices or system control panels
interfaced with the fire alarm system, including but not limited to the
following:
a)
Smoke detector
b)
Projected beam detectors
c)
Heat detectors
d)
Combination fire/smoke dampers, EPs, End switches
e)
Smoke dampers, EPs, End switches
f)
Manual fire alarm pull stations
g)
Fire fighter phones/jacks
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
11.
h)
Visual notification appliances including candela rating
i)
Audible notification appliances
j)
Control modules
k)
Monitoring modules
l)
Fire alarm relays
m)
Fire suppression system valve tamper switches
n)
Fire suppression system waterflow switches
o)
Door hold open and release devices
p)
Auto doors interfaced with the fire alarm system
q)
End of line devices
r)
Location of security system APC door control panels when
interfaced with fire alarm system
s)
Elevators recall systems
System raceways and wiring including:
a)
All wiring serving devices indicated in section 10.
b)
All wire types, color codes, conductor sizes, shields, etc. Refer to
sheet FAWS contained in the appendix for addressable wiring
legend
c)
All conduit, boxes, raceways, etc. serving all wiring.
d)
Conduit and wiring shall be shown as point-to-point (actual)
conduit, raceway and circuit routing, identifying number, size and
type of conduits/raceways and conductors. This information shall
be depicted in sufficient detail to readily locate specific conduits,
raceways and circuits in the field and to identify the specific
conductors/circuits contained therein. French curve routing is not
acceptable for depicting new conduits, raceways and circuits, or
for depicting existing conduits, raceways and circuits whose
detailed routing can be determined without demolition of existing
construction.
C.
Shall indicate existing devices, conduit and associated wiring to be removed. For
devices removed, all conduit and wiring shall also be removed to point of origin,
unless required to maintain the operation of existing devices.
D.
Design engineer shall be responsible for determining the location of all new fire
alarm system devices.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
E.
Design engineer shall field verify the location of all existing fire alarm system
devices, conduit, wiring, etc. In addition, fields verify the location of temperature
control system control panels, motor starters, security system APC panels, etc.
F.
Include on the fire alarm drawings, all device labels. (Refer to sheet FADL
“Device Labeling Scheme,” contained in the appendix.)
G.
Fire Alarm Address Label Schedule
1.
Provide on the drawings a Fire Alarm Address Label Schedule, which will
be used to program the fire alarm system with device and circuit
information. The schedule shall include the following minimal information:
a)
Device type
b)
Device Location
c)
Node number
d)
Mapnet number
e)
List total quantity of all new initiating and notification devices
f)
Descriptor language indicating device and circuit information to be
programmed into the fire alarm system. (Language shall be
coordinated with WBH Security Department)
(Refer to sheet FADS-1 in appendix “Fire Alarm Address Label Schedule
(Descriptor Chart)”)
1.04
DESIGN CALCULATIONS
A.
The design database (program) shall be maintained by SimplexGrinnell. The
design engineer will request from BSC FA/FS, the current program database, for
design purposes.
B.
All design calculations and device addresses shall be coordinated, verified and
approved by SimplexGrinnell, prior to issuance of construction documents.
Design calculations will be submitted for the following new equipment:
1.
Standby battery capacity calculations. Battery calculations shall list the
type of devices and modules, quantities; unit and extended amperage draw
for quiescent and alarm conditions, total amperage draw and battery
amp/hour rating. For design criteria, the battery amp/hour rating listed by
the manufacturer shall be de-rated by 20%. Include all system power
requirements including those requirements for electrical door holders and
door unlocking systems, visual-signaling appliances, or any other auxiliary
function powered by the system.
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
1.05
2.
New AC power supply calculations, including all system loads associated
with new AC power supplies and/or existing AC power supplies for which
new loads are added. Include requirements for electrical door unlocking
systems, visual-signaling appliances, or any other auxiliary function
powered by AC power.
3.
New DC power supply calculations, including all system loads associated
with new DC power supplies and/or existing DC power supplies for which
new loads are added. Include requirements for electrical door unlocking
systems, visual-signaling appliances, voltage drop calculations, or any other
auxiliary function powered by DC power.
4.
Amplifier capacity calculations showing sizing of amplifiers, which are
capable of powering all speakers simultaneously while operating at 80% of
their rated capacity.
DRAWING REVIEW/AGENCY APPROVAL
A.
William Beaumont Hospital Review and Approval:
1.
Following the completion of the project design, submit to the Beaumont
Services Company Project Manager, one (1) complete set of contract bid
documents including one (1) set of drawings and an electronic copy.
2.
Clearly indicate in the drawing issue/revision block that the drawings are
submitted for Owners Review along with the date submitted.
3.
Following receipt of Beaumont Services Company review comments, revise
the drawings as indicated or directed.
4.
Following the incorporation of review comments, indicate in the drawing
issue/revision block that the drawings are submitted for bids along with the
bid date. Bid date should be coordinated with the Beaumont Services
Company project manager or design firm Project Architect as applicable.
Submit to the Beaumont Services Company Project Manager, one (1)
complete set of revised contract bid documents including one (1) set of
drawings and an electronic copy.
B.
C.
State of Michigan Review and Approval:
1.
Bid drawings will be submitted for review to the State of Michigan MDCIS,
Office of Fire Safety by Beaumont Services Company, L.L.C. This applies to
new construction as well as renovation projects.
2.
Bid drawings will also be submitted to the State of Michigan by the Fire
Alarm System Contractor who will package the drawings with the
Application for Fire Safety Plan Examination.
City Review and Approval:
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
Page 8 of 29
Jones Lang LaSalle @ Beaumont Hospitals, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
1.
Bid drawings will be submitted for review to the City Fire Marshal’s Office by
Beaumont Services Company, L.L.C.
2.
A meeting will be scheduled to review the City Fire Marshal’s comments.
The Beaumont Services Company, L.L.C. Project Manager will inform the
appropriate parties if their presence is required at the review meeting.
3.
Review comments of significance shall be revised on design drawings and
incorporated into a bulletin.
4.
Minor Review comments, when not required to be resubmitted shall be
incorporated into as-built documents.
5.
Construction shall not proceed until a red stamped set of approved
drawings or Approved as Noted drawings is received from the City Fire
Marshal’s Office.
D.
1.06
Refer to the “REVIEW AND INSPECTION PROCEDURE FOR FIRE
PROTECTION WORK” document
RECORD DOCUMENTS
A.
Progress Documentation:
1.
Fire alarm system drawings in AutoCAD format shall be made available by
the designer to the fire alarm system contractor at no cost.
2.
The fire alarm system contractor shall maintain a marked up set of design
drawings to reflect “as-built” conditions on the job site for inspection.
3.
The fire alarm system contractor shall deliver the field marked up as-built
drawings to the fire alarm system designer. Fire alarm system designer
shall incorporate these markups into as-built AutoCAD drawings to be
included in project record documents.
4.
All AutoCAD work shall be prepared using the current version of AutoCAD
in accordance with Beaumont Services Company/Technical Information
Group Standards.
5.
One field marked up set of as-built drawings and an electronic AutoCAD
copy shall be provided to the Beaumont Services Company Fire Alarm Fire
Suppression Department at the time of each system tie in.
B.
Final Close Out Documentation:
1.
As-built drawings shall include all changes to design documents.
2.
As-built drawings shall be prepared in accordance with the Beaumont
Services Technical Information Group standards.
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
Page 9 of 29
Jones Lang LaSalle @ Beaumont Hospitals, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
3.
Submit to the Beaumont Services Company Project Manager, one (1)
complete set of revised record documents including one (1) set of drawings
and an electronic copy in the latest version of AutoCAD in use by the
hospital, all in conformance with Beaumont Services Technical Information
Group standards.
4.
Final documents shall include all Fire Marshal changes/comments.
5.
Final payment to fire alarm contractor shall not be made until final as-built
drawings have been received by Beaumont Services Company/Technical
Information Group.
PART - 2
2.01
DESIGN AND MATERIALS
SYSTEM CONFIGURATION
A.
Circuits:
1.
Initiating Device Circuits (IDC) - Initiating device circuits shall be Class B,
Style "B" as described in the latest applicable edition of NFPA 72.
2.
Signaling Line Circuits (SLC) – Addressable initiating device circuits shall
be Class B, Style "4" as described in the latest applicable edition of NFPA
72.
3.
Notification Appliance Circuits (NAC) – Notification appliance circuits shall
be Class B, Style “Y” as described in the latest applicable edition of NFPA
72.
B.
Network communication signaling line circuits:
1.
Activation of all fire alarm device types shall be annunciated individually at
the fire command center. (Networked)
2.
Circuits connecting remote annunciation devices and central station
monitoring equipment with the control panel, and the 4120 network
interface communication system circuits between the data gathering panels
and the system head-end equipment shall be Class A, Style "7" as
described in the latest applicable edition of NFPA 72.
3.
All addressable or digital data circuits, between the control unit and data
gathering panels shall be considered signaling line circuits.
C.
Two Way Telephone Circuits:
D.
Two-way telephone communications service circuits shall be Class B, Style "X,”
supervised with end-of-line resistors.
E.
Control Circuits:
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
Page 10 of 29
Jones Lang LaSalle @ Beaumont Hospitals, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
1.
2.02
FIRE ALARM SIGNALS
A.
2.03
Control circuits for supervised relays, control ZAM’s, or relay IAM’s shall be
Class B, Style "X.”
Activation of the following devices shall be recognized and annunciated
individually at the fire command center as fire alarms:
1.
Smoke detectors
2.
Heat detectors
3.
Manual fire alarm pull stations
4.
Fire protection water flow alarm switches.
5.
Kitchen hood fire suppression (Ansul) System.
6.
Pre-action type fire suppression systems. Both first and second alarms shall
be annunciated and shall result in a fire alarm condition.
7.
Smoke type beam detectors, such as used in Atrium areas shall be
monitored by the fire alarm system.
8.
Air sampling Systems (VESDA) level 1 alarms.
9.
Flame Detector (Ultraviolet)
10.
Special Hazard Suppression System activation.
SUPERVISORY ALARM SIGNALS
A.
The following conditions shall be recognized and annunciated individually at the
fire command center as supervisory alarms:
1.
Fire suppression valve supervisory switch actuation.
2.
Gaseous systems abort stations.
3.
Generator Running.
4.
Fire pump (see sheet FAWD-10 for details)
a)
Pump Running
b)
Power Loss
c)
Phase Reversal
d)
Power on Emergency
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
2.04
2.05
e)
Emergency Isolation Switch Open
f)
Pump Controller not in Auto
5.
Smoke/fire damper Duct Smoke Detectors.
6.
Low air monitors dry pipe or pre-action sprinkler systems.
TROUBLE SIGNALS
A.
The system shall recognize and annunciate initiating device, signaling line circuit
and notification appliance circuit trouble conditions as required by the latest
applicable edition of NFPA 72. (Refer to table in section 2.01)
B.
The system shall recognize and annunciate the following trouble conditions:
1.
Gaseous suppression system trouble signals.
2.
Pre-Action Suppression systems trouble signals.
3.
VESDA Panel trouble signals.
4.
Damper position abnormal signals.
5.
Airflow abnormal signals.
6.
VFD abnormal signals.
7.
AHU Power abnormal signals.
8.
Interfaced Fire Alarm Control Panel trouble signals.
9.
Generator abnormal signals.
10.
Kitchen shunt trip power monitoring signals.
11.
Communications Power abnormal signals.
12.
Accordion fire door controller abnormal signals.
PRIORITY 2 ALARMS
A.
The following conditions shall be recognized and annunciated individually at the
fire command center as Priority 2 alarms:
1.
ETO Gas monitoring alarms.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
2.06
2.
H202 Monitoring alarms.
3.
VESDA level 2 and level 3 alarms.
4.
Refrigerant monitoring.
5.
Elevator recall alarm.
SYSTEM DESIGN REQUIREMENTS AND RELATED EQUIPMENT
A.
System components shall be modular in design to provide future expansion
capability of the system.
B.
The system shall be designed and installed with sufficient capacity, power and
control capability for all initiating, indicating and auxiliary function devices. Spare
capacity shall pertain to quantities of device, circuits, power supplies, conductor
amp capacities (size) and lengths, terminal cabinets, etc. Circuits, circuit boards,
etc. shall have spare installed capacity enabling it to support a twenty percent
(20%) increase in initiating, control and indicating device circuits.
C.
Initiating device circuits and notification appliance circuits shall be dedicated to
the smoke-zone they serve and shall not cross smoke-zone boundaries. Refer to
master zoning drawings.
D.
Alarm verification function shall be utilized for smoke detectors.
E.
Environmental conditions:
1.
F.
All system components shall be listed for the appropriate environment.
Examples include:
a)
Humidity
b)
Outdoors
c)
Temperature
d)
Corrosive/Explosive atmospheres
Electromagnetic Interference:
1.
All fire alarm control equipment, devices and wiring shall be protected
against unwanted radiated electromagnetic interference (EMI) and radio
frequency interference (RFI) which can interfere with normal system
processing and possibly cause unwanted alarms.
2.
The system shall be designed to be unaffected by the operation of a handheld portable radio (walkie-talkie) of 5 watts power generating capability
within 12 inches of any system device with all appropriate covers installed.
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
Page 13 of 29
Jones Lang LaSalle @ Beaumont Hospitals, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
G.
Manual Fire Alarm Stations:
1.
Manual fire alarm stations shall be of the single-action, non-coded type.
They shall consist of housing, fitted with a pull-down lever, which when
operated, locks in position after releasing a spring-loaded contact switch to
effect activation of an alarm circuit. The body of the manual station shall be
permanently attached to the back plate assembly.
2.
Resetting the manual fire alarm stations after operation shall require the
use of a key. Manual stations, which use a screwdriver or Allen wrench for
reset, are not acceptable.
3.
Each manual fire alarm station shall be monitored individually, via either an
integral, addressable element or an addressable monitor module.
4.
Manual fire alarm stations shall be semi-flush mounted in finished areas or
surface mounted in unfinished areas, using appropriate Simplex back boxes
and mounting hardware, on permanent walls or columns, 48" from the finish
floor to the top of the operating lever of the manual fire alarm station.
5.
Fire alarm pull stations in psychiatric units shall be of an institutional type
operable by nursing staff only with a key.
6.
Manual fire alarm stations shall be mounted as to not be obstructed by the
exit door, when it is open.
7.
Where Required:
H.
a)
On each floor at the entrance to each enclosed stair.
b)
At each exit from the building or building separation on each level.
c)
At each nurses station.
d)
As necessary throughout the building, so that travel distance to
the nearest manual fire alarm station does not exceed 200 feet.
Smoke-Sensing Fire Detectors:
1.
Area type smoke detectors shall be installed where indicated in this
standard and required by applicable codes. Smoke detectors shall be of
the analog initiating device type, photoelectric, and be ceiling mounted in
conformance with the requirements of NFPA 72 and accessible utilizing a
standard 12’ ladder. This type of detector should not be considered for use
in atria, mechanical rooms, and other inaccessible areas. Examples
include:
a)
Storage rooms greater than 100 square feet in area
b)
Soiled Utility rooms
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
2.
3.
I.
c)
Electrical rooms
d)
Low Voltage rooms
Projected Beam type detectors shall be installed in areas not readily
accessible. Examples include:
a)
Atria
b)
High Ceiling
Air Sampling type detectors shall be installed in areas not readily accessible
due to mechanical obstructions, or when early detection is required.
Sampling tube “test” ports shall be located 60” off the finished floor.
Examples include:
a)
Mechanical rooms
b)
Computer rooms
Heat Sensing Detectors should be considered in locations where installation of
required smoke detectors would be inappropriate because of environmental
conditions. Designer shall obtain approval from authorities having jurisdiction to
substitute heat detectors for required smoke detectors:
1.
J.
Examples include:
a)
Power House
b)
Unheated spaces
c)
Generator rooms
Duct Smoke Detectors shall be suitable for the full range of air velocity conditions
in the air-handling systems in which they are installed:
1.
Detectors shall be system type, consisting of a plug-in photoelectric type
detector head in a duct-mounted housing equipped with air-sampling tubes
providing airflow through the detector housing or an area type head
installed within the ductwork itself (low velocity apps). The detector housing
shall accommodate either ionization or photoelectric-type detector heads
interchangeably. Detector operating voltage shall be 24 VDC.
2.
Sampling tubes, which serve a duct detector, consist of both a supply tube
and an exhaust tube. The supply tube shall extend across the full width of
the duct. The exhaust tube is integral with the duct detector and is a set
length. The ends of the sampling tubes shall be accessible from outside the
duct and shall be sealed with removable plugs (to facilitate detector testing).
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
3.
Each in-duct smoke detector shall be provided with a key operated remote
test station, incorporating a remote alarm LED. Test stations shall be
labeled with laminated adhesive tape labels with the detector address and
AHU served, handwritten labels are unacceptable. Stations shall be
installed in an accessible location. In finished areas, test stations shall be
installed in the ceiling. In mechanical rooms, test stations shall be installed
on the wall or column at 80" A.F.F. All installation locations of test stations
shall be coordinated with Beaumont Services Co. Fire Alarm Fire
Suppression group personnel prior to installation.
4.
Where installation conditions fall outside the parameters of the in-duct
detector's listing, the design engineer shall provide alternative means of
detection acceptable to the owner and the authorities having jurisdiction.
5.
Duct smoke detectors serving dampers at smoke barriers and shaft walls
shall be wired to the associated smoke damper via the N/C auxiliary contact
of the detector. Damper shall close upon detection of smoke (See sheet
FAWD-7 for details).
6.
Where monitoring of damper end switches is required for specialty areas
such as atrium smoke control etc. they shall be monitored by the fire alarm
system. All other end switches shall be monitored by the building
automation control system (refer to sheet FAWD-8 for details).
7.
AHU shutdown control schemes: In-duct smoke detectors used for
controlling smoke dampers shall not shut down the AHU that serves the
area, AHUs are shut down from duct smoke detectors at the AHU. If the
smoke damper is installed in a location where it is determined that the
closing of the damper may damage the ductwork, the damper end switch
shall be wired to shutdown the AHU when the damper closes. (See sheet
FAWD-9 for details).
8.
K.
a)
AHU supply and return fans are shutdown via the fire alarm
control relay located at the AHU control panel. Upon detection of
smoke all duct detectors located at the unit and at shaft wall
penetrations shall cause the unit to shutdown.
b)
Exhaust fans are shutdown via the exhaust fan damper end
switch(s). Upon detection of smoke all duct detectors located at
shaft wall penetrations shall cause the damper to close causing
the exhaust fan to shutdown via the associated damper end
switch.
Dampers shall not utilize an H-O-A selector switch.
Sprinkler System Devices:
1.
All sprinkler system devices shall be provided and installed by the fire
protection contractor unless otherwise indicated. These devices include:
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Revised 10/11/17
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SECTION 28 31 00 – Fire Alarm Design Requirements
a)
Water flow alarm switches.
b)
Alarm pressure switches.
c)
Pre-action system releasing panel, alarm signal, supervisory
signal, and trouble signal.
d)
Zonecheck water flow test pump assemblies.
e)
Supervisory pressure switches.
f)
Valve supervisory switches.
g)
Supervisory pressure switches on dry-pipe and pre-action
sprinkler systems.
h)
Fire pump controller supervisory contacts.
2.
Design documents shall require the Fire Alarm Installation Contractor to
make all terminations necessary to monitor suppression system devices
including terminations between the fire pump controllers and the fire alarm
system terminal interface.
3.
Design documents shall require the Fire Alarm Installation Contractor to
coordinate with the Sprinkler Contractor and the Owner for testing these
devices. Documentation of suppression system device testing shall be a
part of this contract.
L.
Remote Alarm LED's:
1.
One remote alarm LED with test switch shall be provided for each in-duct
smoke detector.
2.
All initiating devices concealed within a ceiling cavity/plenum, wall cavity or
by equipment shall have a remote alarm LED
3.
Remote alarm LED's shall be ceiling or wall mounted directly outside the
room, in the corridor, where they will be readily visible to responding
personnel. Locations are subject to owner's approval. In Mechanical
Rooms, locate remote alarm LED's in accessible location as coordinated
with the Owner.
4.
All remote alarm LED's shall be identified with laminated adhesive tape
labels with the detector address. Labels shall identify the type of its
associated device(s) and the device location (i.e. room no.).
M.
Door Control:
1.
Door holders to be arranged so that when an alarm is received in a tower,
all doors on the fire floor in that tower and doors separating adjacent towers
shall close.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
a)
Doors, magnetically held open shall be controlled via an auxiliary
relay door holder circuit originating in the fire alarm control panel.
All magnetic door holders shall be 24 volt DC. Use wall mounted
Simplex type magnetic door holders as specified herein wherever
possible. (See sheet FAWD-1 for details)
b)
Automatic door operators located in fire and smoke partitions shall
be de-energized when a fire alarm signal is received. Operators
shall be controlled via a relay, rated for continuous duty,
connected to an auxiliary relay door holder circuit as described
above. In addition, where required, the door hardware shall
positively latch preventing the door from being blown open. Door
latching shall be accomplished through a fire alarm interface with
the door latching hardware power supply. (See sheet FAWD-1 for
details)
c)
When door is located at a building separation a relay rated for
continuous duty shall be installed so that the door will release
upon alarm from either building. (See sheet FAWD-2 for details)
2.
Rolling Shutters at fire rated barriers shall be controlled via a Simplex
addressable relay module located within three feet of the door controller.
The relay shall be normally off. Only the smoke detectors on either side of
the opening shall be programmed to release the door, unless otherwise
deemed required for a specific application. (See sheet FAWD-3 for details)
3.
Accordion Fire Doors at fire rated barriers shall be controlled via a Simplex
addressable relay module located within three feet of the door controller.
The relay shall be normally off. Only the smoke detectors on either side of
the opening shall be programmed to release the door, unless otherwise
deemed required for a specific application. (See sheet FAWD-4 for details)
4.
Electrically locked doors located in paths of egress shall be unlocked when
a fire alarm signal is received. This is accomplished through a fire alarm
interface with the Access Control Panels referred to as ACP(s). Each ACP
shall be provided with a fire alarm signal for each tower that the ACP
serves. The fire alarm signal shall be provided from a control relay located
adjacent to the ACP. The control relay (one per tower served by the ACP)
shall be used to notify the ACP when a tower served is in alarm. (See sheet
FAWD-5 for details)
5.
Trash and Linen Chute Doors shall be controlled via a relay, rated for
continuous duty, connected to an auxiliary relay door holder circuit as
described in section 2.06-M-1. (See sheet FAWD-6 for details)
N.
Notification Signaling System
1.
Notification signaling shall be accomplished throughout the premises via
one-way fire alarm voice/tone speakers and strobe lights.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
2.
Operating voltage of all fire alarm voice/tone speakers shall be 70 Volt. The
calculated load of each amplifier shall be based on 70% of the amplifiers
maximum capacity.
3.
Operating voltage of all fire alarm strobe lights shall be 24 VDC. All strobes
shall be powered from the fire alarm system. The calculated load of each
strobe power supply or NAC panel shall be based on 70% of the strobe
power supply or NAC panel’s maximum capacity. All strobe circuits shall be
designed for no more than 10% voltage drop.
4.
Removal of any notification-signaling device from its associated indicating
appliance circuit shall cause a trouble signal at the Fire Command Center.
5.
All notification-signaling devices shall be equipped with terminal connectors.
Pigtail devices are not acceptable.
6.
Notification signaling devices shall be installed and tapped to produce an
audible output on alarm, which is clearly intelligible and clearly audible
above ambient noise levels.
7.
The notification signaling system(s) shall provide one channel
communication capability via the fire alarm speakers.
8.
The notification signaling system shall be arranged for automatic operation,
with provision for manual operation/override. Equipment shall be arranged
so that notification-signaling zones can be selectively addressed,
individually, or in any combination of individual zones.
9.
Locate speakers and strobes for optimum audibility and visibility.
10.
Audible and visual notification appliance circuits shall be dedicated to the
single smoke zone they serve. A single circuit shall not serve more than
one smoke zone. Design drawings shall indicate smoke zones.
O.
Fire Alarm Speakers:
1.
2.
Fire alarm speakers shall:
a)
Have variable watt input taps.
b)
Not be located at Nurses Stations.
c)
Speakers shall be located at a distance away from any system
microphone to prevent feedback.
Speakers shall be mounted in accessible locations on permanent walls or
columns. If walls and columns are not available ceiling mounting is
acceptable if ceiling height is less than 15 feet.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
3.
P.
The one-way voice paging system is required to provide clearly audible,
intelligible voice messages, with the Owner being sole judge of whether or
not voice messages are "intelligible." The quantity, locations and tapping of
speakers shall be adjusted as necessary to meet this requirement.
Visual Signaling Devices:
1.
To allow synchronization between circuits all strobes shall be synchronized
using smart sync-modules. All smart sync-modules shall be located
adjacent to the system DGP.
2.
Installation shall be on walls or columns at a height of 80” above finished
floor to the bottom of the lens. If walls and columns are not available ceiling
mounting is acceptable if ceiling height is less than 15 feet.
3.
Strobes shall be installed where required by code and in storage rooms that
exceed 200 square feet in area.
4.
Areas where strobes are not to be installed:
Q.
a)
Patient Toilet rooms
b)
Operating Rooms
c)
Private Offices
d)
Treatment Rooms
e)
Exam Rooms
Notification Signaling Sequence of Operations:
1.
FIRE ALARM SYSTEM SIGNALS
a)
Fire Alarm - A fire alarm signal is initiated by fire alarm pull
stations, smoke detectors, heat detectors, waterflow alarm
switches, special gaseous systems suppression agent discharge
pressure switches, alarm and pressure switch contacts of
monitored pre-action releasing panels and VESDA System alarm
(level 3). Fire alarms are audibly and visually annunciated at all
annunciation devices and automatically initiate voice message,
remote signaling and auxiliary control functions.
b)
Latching Supervisory - A latching supervisory signal is initiated by
duct smoke detectors and in-duct smoke detectors. Latching
supervisory alarms are audibly and visually annunciated at all
annunciation devices. Latching Supervisory signals do not initiate
automatic notification signaling but do initiate auxiliary control
functions (damper closure, fan shutdown, etc.).
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
2.
c)
Supervisory - A supervisory signal is initiated by sprinkler valve
supervisory switches, gaseous systems abort stations, low air
supervisory pressure switches, supervisory contacts associated
with monitored fire pump controllers, generator running, manual
control switches for auxiliary functions and status annunciation
contacts for devices controlled or monitored by the fire alarm
system as auxiliary functions. Supervisory alarms are audibly and
visually annunciated at all annunciation devices. Supervisory
signals do not initiate automatic notification signaling or auxiliary
control functions.
d)
Trouble - A trouble condition signal is initiated by the system in
response to fault conditions detected in supervised circuits and/or
components. Common trouble contacts of monitored gaseous
suppression releasing panels, pre-action suppression releasing
panels, VESDA system panel common trouble contacts, damper
position abnormal signals, airflow abnormal signals, VFD
abnormal signals, AHU power abnormal signals, interfaced fire
alarm control panel trouble signals, generator abnormal signals,
kitchen shunt trip power monitoring signals, communications
power abnormal signals, accordion fire door controller abnormal
signals, etc. Trouble conditions are audibly and visually
annunciated at all annunciator locations, main system panels and
the Security Operations Center. They do not initiate automatic
notification signaling or auxiliary control functions.
e)
Priority 2 - A priority 2 alarm is initiated by Powerhouse Freon
detection, ETO gas monitoring, H O monitoring, VESDA
System (level 2 and level 3) or activation of the elevator capture
system.
NOTIFICATION SIGNALING SEQUENCE OF OPERATIONS
Upon receipt of a fire alarm signal, the following occurs (See above for fire
alarm signals):
Strobes on the fire floor, two floors above and one floor below shall activate
within the building of origin. Simultaneously an automatic digitized voice
message identifying the zone and area of origin operates automatically and
repeats three rounds throughout the hospital and then shuts off. A "March
Time" pattern of chimes and strobes will remain active within the building of
origin until silenced and reset.
Audible and flashing visual FIRE ALARM indication followed by an
automatic digitized voice message identifying the zone and area of origin
operates automatically and repeats three rounds throughout the hospital.
After the digitized voice message is completed a "March Time" pattern of
chimes and strobes will activate on the fire floor, two floors above and one
floor below, only in the tower where the initiating signal occurs.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
Upon receipt of an additional fire alarm signal, the chime tone shall silence
and the digitized voice message shall repeat three rounds. The strobes
shall remain on.
Actuation of a manual control switch at the Main Status Command Center's
notification signaling panel to the "Evacuate" position activates the strobe
lights and a Chime throughout the associated notification signaling zones.
No other controls or switches are necessary in order to accomplish this
function; "one-switch" manual notification signaling capability is required.
Actuation of a manual control switch at the Main Status Command Center's
notification signaling panel to the "Voice" position activates the speakers
throughout the associated notification signaling zones. If the selected
notification zone is in the alarm mode, it shuts off the chime tone.
Voice messages can be transmitted from the command center serving the
area when the microphone key is pressed. Returning the manual key switch
to the automatic position causes the chime to resume
The "Signal Silence" and "System Reset" switches are located at the Voice
Command Center's.
Royal Oak: The North Tower Command Center, the Center Tower Fire
Command Center (In addition the Hospital Network IMS in the Fire
Command Center located in Center Tower is capable of silencing the
complete system and or resetting the complete system), the East Tower
Command Center, the South Tower Command Center, and the Northwest
Tower Command Center.
Troy: The Hospital Main Command Center (N.P.U.), Professional Office
Building the Hospital Main Command Center (N.P.U.), Ambulatory Care
Center the Hospital Main Command Center (N.P.U.)
Grosse Pointe: The Hospital Main Command Center
3.
Typical Magnetic Door Hold Open Devices: Upon detection of smoke by
any fire alarm initiating device located within the smoke
zone/compartment/building, the following shall occur: The normally closed
contact within an auxiliary relay located in the fire alarm data gathering
panel (DGP/NODE) opens, de-energizing the 24 volt D.C. circuit serving the
magnetic door holder, and closing the door on the fire floor of origin.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
4.
Typical Magnetic Door Hold Open Device located at the border between
two buildings: Upon detection of smoke by any fire alarm initiating device
located within the smoke zone/compartment of either building, the following
shall occur: The normally closed contact within an auxiliary relay located in
the fire alarm data gathering panel (DGP/NODE) opens, de-energizing the
24 volt D.C. circuit serving the magnetic door holder, via the normally openpowered closed contact in a Simplex MR-101 control relay, closing the
door. A second possible sequence could occur, were the opening of the
normally closed contact within the auxiliary relay located in the fire alarm
data gathering panel (DGP/NODE) would de-energize the 24 volt D.C.
circuit serving the Simplex MR-101 control relay's coil, opening the normal
open-powered closed contact in the relay, closing the doors. Refer to
typical door interface wiring diagram on drawings for additional information
as it relates to this project.
5.
Typical Air Handling Unit Sequence of Operation, Purge and Shutdown:
Refer to unit specific sequence of operation indicated on control wiring
diagram sheets.
6.
Typical Pre-Action System Sequence of Operation: Refer to device specific
sequence of operations. Not applicable this project.
R.
Firefighter's Telephones/Telephone Jacks:
1.
Location of firefighter's permanent telephone stations, plug-in telephone
jacks and portable handset cabinets shall be approved by the AHJ and
coordinated with architectural trades.
2.
Permanent firefighter's telephone stations shall be provided at the following
locations:
3.
a)
In each fire pump controller room.
b)
Security Operation Center.
c)
Master fire command center.
d)
Voice command centers.
Plug-in firefighter's telephone jacks (for use with portable handsets) shall be
provided at the following locations:
a)
In each exit stair at each floor landing, inside and outside of
stairwell.
b)
In each elevator lobby.
c)
In each elevator car.
d)
In each elevator mechanical room.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
e)
2.07
2.09
4.
The firefighter's telephone system shall provide one zone for each stairwell,
each elevator lobby and for each bank of elevators and shall provide
individual zones for the fire pump control rooms. Phone jacks in Data
Gathering Panels (intended for use while servicing/testing the system) do
not require separate zones and may be connected to any zone that is
convenient.
5.
Controls at the VCC and Master Fire Command Center allow operator
selectable, two-way voice communications to each firefighter's telephone
zone. Operation of a zone select switch or switches establishes
communications between the VCC and Master Fire Command Center and
the selected telephone zones.
6.
Each telephone station or telephone jack shall be clearly and permanently
labeled to allow the caller to identify his or her location to the master fire
command center by voice.
7.
Firefighters' telephone jacks in elevators and elevator lobbies shall consist
of a single-gang, brushed stainless steel plate containing a plug-in type
telephone jack, labeled "Firefighters' Telephone" with a permanent
laminated adhesive tape label. The floor and elevator lobby designation or
elevator car designation shall be prominently labeled immediately adjacent
to the station.
8.
Firefighter's telephone jacks shall be provided with terminal strips. Pigtail
devices are not acceptable.
AC POWER
A.
2.08
Below each data gathering panel remote from the VCC.
AC power for any new fire alarm equipment shall be served from the building's
designated life safety emergency electrical power circuit, UPS power is preferred,
and shall meet the requirements of NFPA 72.
BATTERIES/SECONDARY POWER SOURCES
A.
New equipment batteries shall supply operating power for a minimum duration of
four (4) hours.
B.
Batteries shall be sized to accommodate the connected design load, plus 30%
spare capacity for future loads.
REMOTE DATA GATHERING PANELS (DGPs)
A.
DGPs shall be Simplex 4100U series.
B.
DGPs shall be networked.
28 31 00 Fire Alarm Design Requirements
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
2.10
C.
DGPs shall be capable of stand-alone degrade mode operation, initiating
notification signals (chimes and strobes) in their associated notification signaling
zone(s) in response to fire alarm signals.
D.
Failure or malfunction of a data gathering panel shall not impair operation of fire
alarm system devices and functions beyond those normally monitored or
controlled by the affected DGP.
CONDUIT SYSTEMS
A.
The requirements of this section apply to all fire alarm conduits, raceways,
electrical enclosures, junction boxes, pull boxes and device back boxes.
B.
Fire alarm system conduit shall be dedicated to the fire alarm system and shall
contain no unrelated conductors.
C.
Aluminum conduit is prohibited.
D.
All fire alarm system conduits shall be of the sizes and types specified.
1.
E.
Conduits shall be galvanized EMT except as noted below.
a)
Where exposed and subject to damage rigid steel shall be used.
Including within stair enclosures, below a height of seven feet
above the finished floor or in other locations where they are likely
to be subject to mechanical damage.
b)
Flexible metallic conduit shall be steel and is permissible for whips
to devices only, maximum length 6 feet.
c)
Conduits installed in damp, wet and corrosive locations, shall be
PVC coated rigid steel.
2.
Conduits shall be sized according to the conductors contained therein.
Cross sectional area percentage fill for fire alarm system conduits shall not
exceed 40%.
3.
Conduits shall be ½ inch minimum.
All fire alarm conduit shall be routed and installed to minimize the potential for
physical damage, mechanical or by fire, and so as not to interfere with existing
building systems, facilities or equipment, and to facilitate service and minimize
maintenance.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
1.
All fire alarm conduits, except final flexible conduit connections to devices,
shall be solidly attached to building structural members, ceiling slabs or
permanent walls. Conduits and boxes shall not be attached to existing
conduit, ductwork, cable trays, other ceiling equipment, drop ceiling
hangers/grids or partition walls, except where necessary to connect to
initiating, notification signaling or auxiliary function devices. Hanger rods
shall be 1/4-inch minimum diameter threaded steel rods.
2.
All fire alarm system conduits shall be routed/installed either parallel or
perpendicular to building structural members.
3.
All fire alarm system conduits shall be installed at a height so as not to
obstruct any portion of a window, doorway, stairway or a passageway, and
shall not interfere with the operation of any existing mechanical or electrical
equipment.
4.
All fire alarm system conduits, junction boxes, pull boxes, terminal cabinets,
electrical enclosures and device back boxes shall be readily accessible for
inspection, testing, service and maintenance.
5.
Pull boxes shall be installed in each fire alarm system conduit at intervals
not to exceed 100 feet except for signaling line circuits between data
gathering panels. Pull boxes shall be 4-inch square, minimum.
6.
All device back boxes, junction boxes and terminal cabinets shall be sized
to accommodate the number of conductors contained therein; extension
rings or extension boxes are not to be used to meet conductor capacity
requirements. Extension rings may be used for flush mounting of devices as
needed.
F.
Conduit, raceways, junction boxes, panels, electrical enclosures, relays and
device back boxes shall be exposed in unfinished areas and concealed in walls,
ceiling spaces, electrical shafts or closets, in finished areas, except as noted on
the drawings.
G.
All conduit penetrations of walls, floors and ceilings shall be sealed according to
the Beaumont Services Co. Fire Stopping Standard. The fire alarm Contractor
shall restore the walls, floors and ceilings to their original condition, fire
resistance and integrity. The fire alarm system Contractor shall be responsible
for all patching and touch-up painting necessitated by the performance of his
work. Removal and repair of all finished surfaces shall be coordinated with, and
is subject to the approval of the Owner.
H.
All fire alarm system, pull boxes, junction boxes and terminal cabinets shall be
colored orange prior to installation. The Contractor shall provide touch-up
painting, of conduits; pull boxes, junction boxes and terminal cabinets prior to
final acceptance testing. All conduit couplings shall be colored orange.
28 31 00 Fire Alarm Design Requirements
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Revised 10/11/17
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DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
I.
2.11
The use of surface mounted back boxes and devices shall be subject to
the approval of the Owner. All surface mounted device back boxes shall
be manufactured by Simplex or be made of cast metal construction,
designed and sized to accommodate the device(s) mounted on them.
CONDUCTORS
A.
The requirements of this section apply to all fire alarm system conductors.
B.
All fire alarm system conductors shall be:
1.
Installed in conduit or enclosed raceway.
2.
Sized as recommended by Simplex and in accordance with the National
Electrical Code Article 760.
3.
Color coded. Refer to Fire Alarm Wiring Schedule sheet FAWS-1 as well as
individual device wiring diagrams for color coding requirements.
4.
Installed continuous without the use of splices or wire nuts.
5.
All fire alarm system wiring shall be installed with wire numbers installed on
the wire at each end and at all terminations. Locate wire numbers at
accessible locations such as in junction boxes, enclosures, device boxes,
etc. Wire numbering scheme for all purge and control wiring shall be in
accordance with J.I.C. standards.
6.
All fire alarm system conductors shall be of the type(s) specified herein.
7.
a)
All NAC, SLC, IDC, AC power conductors, shield drain conductors
and grounding conductors, shall be copper. The use of aluminum
wire is prohibited.
b)
All SLC’s, including all addressable initiating device circuits, shall
be multi-conductor jacketed twisted cable or twisted shielded per
Simplex/Grinnell's recommendations.
c)
All non-addressable initiating device circuits, indicating appliance
circuits, 24 VDC auxiliary function circuits and firefighters'
telephone circuits shall be twisted pairs or twisted shielded per
Simplex's recommendations. Indicating appliance circuits,
initiating device circuits, signaling line circuits and firefighters'
telephone circuits shall be shielded.
All fire alarm conductor terminations, except splices in shield drain
conductors, and including field connections to supervisory resistors, diodes,
relays or other devices, shall be to numbered terminals or terminal strips
and shall be readily accessible for inspection, service, testing and
maintenance.
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
Page 27 of 29
Jones Lang LaSalle @ Beaumont Hospitals, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
8.
9.
a)
All fire alarm conductor terminations shall be within junction
boxes, device back boxes, terminal cabinets, control panels or
other suitable metal enclosures.
b)
Terminals and terminal strips shall be suitable for the size and
number of conductors connected to them.
c)
Each conductor termination shall be uniquely numbered with
durable plastic tags or uniquely identifiable by a combination of
numbers and color codes. These conductor numbers shall be
shown on the Contractor's record drawings (floor plans and
detailed wiring diagrams) in a manner allowing ready identification
of all conductor terminations.
d)
All terminations are subject to the approval of the Owner.
All control panel wiring shall conform to the requirements of this section:
a)
All control panel wiring shall be fully and neatly bundled with nylon
tie wraps at 3-inch intervals. Bundled wiring shall be routed
parallel to terminal strips within control panels, with individual
conductors turned out at 90 ° angles to their associated terminal
connections. AC power conductors shall be bundled and routed
separately from low voltage conductors. A minimum 2-inch
separation shall be maintained between AC power conductors and
low voltage conductors wherever possible. All control cabinets
shall be sized to accommodate the requirements of this section.
b)
Control panels shall not be used as raceways. Conductors, which
do not terminate within a control panel, shall not be routed through
that control panel.
c)
In accordance with manufacturers installation requirements, power
limited wiring shall be installed only within the power limited wiring
section of fire alarm panels. Non-power limited wiring shall be
installed only within the non-power limited wiring section of fire
alarm panels.
d)
Conduit connections shall not interfere with area designated for
battery installation in a fire alarm panel.
Where recommended by Simplex/Grinnell fire alarm circuits shall be twisted
and shielded as necessary to prevent electrical and/or audio crosstalk
between conductors installed in common conduits. Refer to drawing FAWD14 for details.
a)
Metallic continuity must be maintained throughout the entire length
of the cable run.
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
Page 28 of 29
Jones Lang LaSalle @ Beaumont Hospitals, LLC.
DESIGN/CONSTRUCTION STANDARDS AND GUIDELINES
SECTION 28 31 00 – Fire Alarm Design Requirements
2.12
c)
Yellow heat shrink tubing and an insulated crimp connector (RB44
or equivalent) shall be used on all shield splices and terminations.
10.
Conductors looped around terminals are not acceptable.
11.
T-tapping of fire alarm circuits is prohibited.
All device back boxes, junction boxes and pull boxes shall be accessible for
inspection and maintenance. Junction pull boxes shall be installed on 100-foot
centers maximum. The location of all back boxes, junction boxes and pull boxes
shall be noted on the record drawings. Conduit mounting will not be acceptable
as box support. Boxes shall be supported independently of conduit.
PANEL NAMEPLATE
A.
All fire alarm panels, terminal cabinets, etc. shall have an approved label located
on the cover. Brady Thermal Transfer Label or equivalent.
B.
Labels shall be orange with black lettering.
C.
Labels shall be 6.5"W. X 4.25"H. with adhesive back.
D.
Refer to panel details contained in the appendix for specific label requirements.
PART - 3
3.01
All conductors shielding shall be continuous (with splices at device
terminations only) for the length of the circuit, terminated at the
associated control panel only.
BOX LOCATION
A.
2.13
b)
Appendix
DRAWINGS
END OF SECTION
28 31 00 Fire Alarm Design Requirements
Issued 05/24/10
Revised 10/11/17
Page 29 of 29