2/22/2021
Fluke Webinar:
Operation, Maintenance and Testing in power transmission and distribution.
This webinar will start at 10am sharp.
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Stay connected and engaged with us on the platform!
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2/22/2021
To open the chat box, click on
this icon. Use the chat box to
communicate with the panelist on
audio issues.
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You should see a Q&A box here.
You can key in any technical
questions you have to the panelist
anytime during the webinar.
Address your question to
“All Panelist”
If you are unable to see the
Q&A panel, click on this icon
to activate the Q&A.
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2/22/2021
During a polling session,
the poll will appear here.
Simply select your answer
and submit it!
If you are unable to see the
polling panel, click on this icon
to activate the poll.
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We look forward to your participation for a fruitful webinar!
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2/22/2021
Fluke Webinar:
Operation, Maintenance and Testing in power transmission and distribution.
This webinar will start at 10am sharp.
7
Fluke Total Solution for Utility Sector
Partial Discharge
Detect High voltage
Thermal Imaging
Power Quality
Electrical signal
Underground Tracer
Earth / Ground
Backup
Battery
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2/22/2021
High Voltage segment SOLUTION
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How did it occur?
Over the years, studies
have shown that more
than 85% of disruptive
failures in both medium
voltage (MV) and high
voltage (HV) equipment
and machinery are Partial
Discharge related.
PD have led to
the fire of the
transformer
the cost of
replacing the
transformer
500,000$
cost of the
transformer:
2,500,000$
loss of opinion
on the reliability
of nuclear
power plants
Source: thesunnews
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© 2020 | Fluke Industrial Group
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2/22/2021
Types of Partial Discharge
4 Types of Partial Discharge:
❑ Internal Discharge
- Occurs within a void in insulation such as gaps in solid
or gas bubbles in oil
❑ Surface discharge
- Occur when there is a degradation of the surface of
the insulator caused by contamination
- Electrical Treeing
• Insulator contains a carbon-based compound →
carbonization and form carbon track on surface
❑ Arcing
- An electric arc, or arc discharge, is an electrical
breakdown of a gas that produces a
prolonged electrical discharge or plasma discharge
❑ Corona
- Occurs when the air surrounding a conductor is
ionized, causing an electrical discharge.
- Discharge to air
Electrical Treeing
Corona Discharge
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© 2020 | Fluke Industrial Group
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Can You Hear The Partial Discharge?
But we can’t see it…
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© 2020 | Fluke Industrial Group
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2/22/2021
Fluke ii900 – A Method Combining Acoustic and Optical
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© 2020 | Fluke Industrial Group
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What is acoustic sound imaging?
• A technique to create an image of the scene based on the sounds in the scene
• The sound image is then overlaid onto a visible image
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© 2020 | Fluke Industrial Group
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2/22/2021
Preventive Maintenance on Transmission Lines & Switchyards
Detection of Corona on High Voltage towers and switchyards
❑ Easy to use
❑ Safety: able to detect from safe distances
❑ Less depending on external conditions (visual
limitations of UV Cam, noise limitations of
ultrasonic tools).
❑ Accordable price vs. UV camera
❑ Better documenting with pictures
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© 2020 | Fluke Industrial Group
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Switchyard
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© 2020 | Fluke Industrial Group
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Switchyard
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© 2020 | Fluke Industrial Group
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Transmission Lines
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© 2020 | Fluke Industrial Group
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Preview of New Fluke ii910 Precision Acoustic Imager
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© 2020 | Fluke Industrial Group
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POLL QUESTION No. 1
?
What is the technology Fluke ii900 use to detect Partial Discharge?
(Click only one answer)
A. Thermal imaging
B. Acoustic imaging
C. Ozone monitoring
D. All above
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© 2020 | Fluke Industrial Group
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2/22/2021
Overhead and underground electric safety
•
In the last 24 months, 173 accidents have occurred involving electrical systems
or equipment in the public and private sector
•
•
•
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132 accidents involving contact with energized power lines/conductors (overhead,
underground and ground level)
31 accidents involving contact with energized transformers (or its components)
10 involving contact with high voltage switch gears
•
Accidents were triggered by arc flashes and electrocution by contact
(Source, OSHA)
•
Around 30,000 arc flash accidents occur every year in the US, leaving 7000
burn injuries and 400 fatalities
•
Every 6 minutes an underground electric utility is damager because someone
digs without the right info
(Source, Industrial Safety & Hygiene News)
© 2020 | Fluke Industrial Group
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Overhead safety with amprobe TIC 300
•
CFR 29.1926.964 (OSHA 29) Overhead lines and live-line
barehand work
• Employer shall provide the protective measures when employees
are working close enough to energized conductors
• Minimum approach distances should be kept when approaching
energized areas
• These distances can be defined by the end-user
• All equipment should be insulated
Amprobe High Voltage Non-Contact Detector
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© 2020 | Fluke Industrial Group
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Underground safety risks
1. Incorrect estimation of depth
• Excavate with wrong depth
• Come in contact with kV energized lines
2. Overlapping of electrical wires
• Intersection of two underground wires with different directions a different depts
• User confusing which wire is energized
3. Old circuit designs
• Underground circuit designed not updated in a long time
• Contractors’ works impact directions and depths not reflected on plans
4. Ground faults / Cable faults
• Wire damages (faults) impacting the cable’s resistance
• This can lead to a voltage breakdown
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© 2020 | Fluke Industrial Group
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Underground safety
•
CFR 29.1926.965 (OSHA 29) Underground Electrical
Installations Guidelines
• Provides additional requirements for work on underground electrical
installations
• Cables with abnormalities are stated as a risk of fault or indication of
an impeding fault
• Employee shall de-energize the conductor
• Cables retain energy, even de-energized (particularly long cables)
• OSHA never clarified until 2003 what is an underground utilities
Underground Cable Locator
with Fault Finding Capability
locating mean
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© 2020 | Fluke Industrial Group
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UAT-620 underground cable tracer
•
•
•
•
•
It can search an area from the surface to locate buried lines.
It can measure depth from the surface.
It can find cable faults and monitor pipeline coating condition and locate
water leaks in plastic pipes.
It can pinpoint the position of joints in iron gas pipes.
The technique works in all soil conditions
Underground Cable Locator/Tracer
with EM Induction Technology
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© 2020 | Fluke Industrial Group
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Multiple tracing mode methods
1. Passive
•
•
50/60 Hz: On energized wire
Radiofrequency: detects reflected RF waves from utility
2. Active (Non-contact or contact signal inject)
• Induction: Propagates unique 8kHz/ 33kHz signal
• Signal Clamp (Traces particular cable )
• Direct Connection (any hot line below 600V, accurate)
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© 2020 | Fluke Industrial Group
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POLL QUESTION No. 2
?
Which of the following is not an advantage of the EM Induction Technology
for tracing? (Click only one answer)
A. It can find cable faults
B. It can work in all soil conditions
C. It can measure temperature from surface
D. It can pinpoint position of joints in iron gas pipes
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© 2020 | Fluke Industrial Group
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Importance of Grounding
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•
Good grounding not only for safety, its also prevent damage to industrial
plants and equipment.
•
Good grounding system will improve the reliability of equipment and reduce
the damage due to lightning or fault current .
•
To provide a safe path for the dissipation of fault currents, lightning strikes,
static discharges, EMI and RFI signals and interference.
•
National Fire Protection Association (NFPA ) and IEEE have recommended a
ground resistance value should be 5ohm or less
© 2020 | Fluke Industrial Group
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2/22/2021
Methods of Testing (Transmission / Distribution)
Selective Testing method
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Selective Testing method
© 2020 | Fluke Industrial Group
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Transmission Earth Testing
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© 2020 | Fluke Industrial Group
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Distribution lines with concrete base
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-
Stakeless method (only 2 clamps): the result is 2.912 ohm.
-
Differences from 3-pole method is only 0.162 ohm.
© 2020 | Fluke Industrial Group
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Summary of the earth ground testing
Fall of potential method
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Selective method
Stakeless method
Building Grounding test method
© 2020 | Fluke Industrial Group
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Safe and Early detection of problems in Utility
Transformer
A transformer operating at just 10C above
its rating will reduce its life by 50%!
Transformer
Cooling Tubes
Common failures
•
•
•
•
•
Loose connection
Harmonics
Unbalance
Overloading
Cooling issue
Transformer normal
thermal pattern
Cold thermal pattern in 4th bank of cooling tubes indicates
the oil isn’t circulating
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© 2020 | Fluke Industrial Group
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Key Electrical Applications in Utility
UPS Batteries
The optimum ambient air temperature around
a VRLA battery is 22C +/-5C. Every 1C
increase in operating temperature will reduce
5% of battery life
Battery terminal connection problem
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Whole battery cell overheat could be due to
poor air circulation
Elevated heating pattern on a UPS battery
cell, most likely caused by an internal short
causing high resistance
© 2020 | Fluke Industrial Group
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What can be done at hard-to-reach area?
Fluke Telephoto lens
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© 2020 | Fluke Industrial Group
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Fluke CV400 IR Window
• Highest arc blast safety rating—63kA
• IP67 for years of maintenance free
• Rugged construction
• AutoGround™ technology instantly grounds
window to enclosure upon installation
• Quick installation
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© 2020 | Fluke Industrial Group
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2/22/2021
Low Voltage Segment SOLUTION
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Low Voltage Application
Power
Quality
Back up
Power ( UPS)
Grounding
for
substation
Power and
harmonic
application
Battery
testing
Application
Earth
Grounding
Electrical
Partial
discharge
UPS transfer
time
Cable tracer
AC /DC testing
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Power Quality
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Where is it used – Customer Workflows?
Power & Energy Value
Stream
3
1
Utility Power Gen
<50MW, Renewable sources &
energy storage
4
2
Utility Distribution
Substation Power Quality
Monitoring
5
Utility Distribution
Branch circuits, last mile PQ
and energy services
Industrial & Commercial
Energy & PQ Monitoring
Workflows where monitoring power quality is integral to Utility management and QA or Industry
operations uptime and Opex spend
• Utility system planning, demand management and PQ analysis.
– The task of understanding power consumption to ensure the distributed power meets the ever-growing needs of industry
and the consumer.
• Industrial and commercial facility electrical infrastructure, m onitoring power at main service entrance and critical
branch circuits
– Mitigate power quality issues that disrupt company operations
– Trend energy consumption trends, identify waste and savings opportunities
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Standards – EN50160
What is EN50160?
• The EN50160 standard is used across Europe to describe the allowable levels of power quality provided by electricity
distributors, it includes a range of measured variables and the allowable level for each individual measured parameter,
these include:
– Frequency
– Short interruptions
– Long interruptions
– Flicker PST
– Flicker PLT
– Interharmonic voltage
– Temporary overvoltages
– Voltage dips
– Voltage variations
– Harmonic voltages
– Mains signaling voltage
– Rapid voltage change
– Voltage unbalance
The power quality is measured at the point where the
utility transfers power to the consumer, at the point of
common coupling (PCC), where the utilities revenue meter
is typically located.
The EN50160 has some serious limitations, it includes a
significant amount of time during the any seven days
period when power quality does not have to meet the
allowed level for many hours per week.
The described levels are useful for all users as a basic
description of the power quality state of health.
Applies to HV, MV and LV networks with different
allowable levels at each voltage
EN50160 is used more as the starting point of negotiation with the power utility and
consumer rather than a minimum quality standard the utility agrees to.
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Standards – IEEE519
What is IEEE519-2014?
• The IEEE519 relates to the distortion requirements when installing harmonic loads on the power network.
• The standard details the allowable voltage and current distortion limits allowable at the point of common
coupling
• Different voltage distortion limits apply at separate voltage levels of:
1kV, 1kV to 69kV, 69kV to 161kV and over 161kV:
• The current distortion limits apply at a different set of voltage levels:
120V to 69kV, 69kV to 161kV and over 161kV
• During testing the load is operated to discover the level of distortion created during typical operating cycles.
Harmonic loads within this context are non-linear loads such as static power converters, arc discharge devices, saturated magnetic
devices, and, to a lesser degree, rotating machines. Nonlinear loads change the sinusoidal nature of the ac power current (and
consequently the ac voltage drop), thereby resulting in the flow of harmonic currents in the ac power system that can cause
interference with communication circuits and other types of equipment.
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IEEE519 – Limit Examples
Voltage harmonic limits for all voltage level
Bus voltage V at PCC
V ≤ 1.0kV
1kV < V ≤ 69kV
69kV < V ≤ 161kV
161kV < V
Individual Harmonic (%)
5.0
3.0
1.5
1.0
Total Harmonic Distrortion THD (%)
8.0
5.0
2.5
1.5
Current harmonic limits at 69kV to 161kV:
ISC/IL
<20
20 < 50
50 < 100
100 < 1000
>1000
Maximum harmonic current distortion in percent of IL
Individual harmonic order (odd harmonics) a, b
3≤ h <11 11≤ h < 17 17≤ h < 23 23 ≤ h < 35 35≤ h ≤50
2.0
1.0
0.75
0.3
0.15
3.5
1.75
1.25
0.5
0.25
5.0
2.25
2.0
0.75
0.35
6.0
2.75
2.5
1.0
0.5
7.5
3.5
3.0
1.25
0.7
TDD
2.5
4.0
6.0
7.5
10.0
The IEEE519/Report software module direct compares the measured values with the limits of the
standard to produce detailed reports in the minimum time.
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IEC61000-4-7 - Harmonics
• The IEC61000-4-7 standard is a general guide on harmonics and interharmonic measurement and
instrumentation for power networks
• It describes in detail the methods that should be used for measurement and classification of the measured
values of harmonics and interharmonics
• In addition to the main standard there are two additional annex documents that describe the measurement
of interharmonics and harmonics in the frequency range above 9kHz.
• These two documents are informative, that is that are not strictly part of the standard.
• The standard does include a variety of limits that other standards specify in a number of examples to show
how the standard is used but nominally does not have built-in limits. These standards include:
• IEC 60038
• IEC 61000-2-2
• IEC 61000-3-12
• IEC 61000-3 series (various standards)
The purpose of this standard is to ensure that measurements of harmonics are consistent by various
measurement instrument so that results can easily be compared when multiple instruments are
used.
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IEC61000-4-15 / IEEE1453 Flicker
• The IEC61000-4-15 and IEEE1453 describe the methods of measurement of flicker in power systems.
• Flicker is caused by fluctuations in the power system voltage which result in observable changes in the light output
of electric lamps. It can be an annoyance and hindrance to workplace productivity and visually affect susceptible
individuals.
• The fluctuation may also cause detrimental effects to electrical equipment such as nuisance tripping of breakers,
unwanted switchover in UPS systems and problems with sensitive electronic equipment that need constant
voltage (e.g. medical equipment)
• The basic measurement of flicker is PST, short term flicker and PLT, long term flicker. Short term is considered over a
10 minute period and long term over a 2 hour period.
• A PST value of 1.0 for flicker represents a figure that 50% of people would perceive flicker in a 60W incandescent
bulb. Although incandescent bulbs are used less frequently the overall effect of flicker remains present on other
lighting and equipment.
• The two standards are almost identical, the IEC standard refers to 230V operated system and the IEEE refers to
120V operated systems.
The typical source of voltage flicker comes from randomly operating loads such as arc furnaces,
welding machines, intermittently starting and stopping induction motors.
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IEC61000-4-30
• The IEC61000-4-30 standard describes the measurement and testing methods to be used by power quality
measurement instruments. It allows two classes of instruments, Class A and Class S.
• Class A offers the best accuracy and Class S is considered to be acceptable for regular power quality surveys.
• The main differences in accuracy are in the measurement of voltage and time. For Class A, voltage accuracy of 0.1
% of declared input voltage UDIN over the range of 10% to 150% of UDIN is required
• For time accuracy, ± 20 ms for 50 Hz and ± 16.7 ms for 60 Hz is required regardless of the total time interval.
Achieving this accuracy requires either a GPS clock via a GPS receiver or NTP (Network Time Protocol) via Ethernet
• The standard describes the method required for measurement (as per IEC61000-4-7 and -15) and dictates the
methods used for classification and flagging of specific items to enable consistent reporting.
• The Fluke 1740 series will be independently verified to comply with Class A by an external agency.
Class A is particularly useful in dispute resolution between the power supplier and the consumer,
the higher accuracy requirements for Class A analyzers enables both user in the dispute to make
measurements that will be identical.
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Class A Data
Aggregation:
• Data is specified to aggregate at multiple rates depending upon the logged value. The primary aggregation periods
are:
• 150/180 cycles (150 cycles for 50Hz and 180 cycles for 60Hz)
• 10-minute interval
• 2-hour interval (note that the 10 minute and 2-hour periods are those specified for flicker in IEC61000-4-15)
• The 10-minute interval is the one which most data is represented by, each 10-minute interval is made up multiple
150/180 cycle periods
Event Capture
• The identification of the time stamp of events (any significant change in the voltage) is made based on the
occurrence of the event with a half-cycle trigger – that is a half cycle RMS voltage outside of limit will be classified as
an event.
• To identify the occurrence of an event each part of the event is ‘flagged’ to indicate that item is part of one event –
this is to ensure that the effects of the event are consolidated into one for simplicity of analysis.
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Measurement Standard Summary
• The prevailing standard for power quality can be split into two areas:
• Measurement and evaluation (for equipment)
• IEC61000-4-7 (Harmonics)
• IEC61000-4-15 (Flicker)
• IEC61000-4-30 (Methods)
• Evaluation of logged data against limits
• EN50160
• IEEE519
• GOST (Russian standard)
• This is not a comprehensive list of standards for power quality, but these are most frequently quoted standards.
• In many cases there a geographical adaptation of the standards which evaluate against limits which use locally
defined limits, the Fluke 1740 series have adjustable limits to adapt the instrument and reporting to these
situations.
• There are also localized reporting standards that can be configured within the instrument and in reports in the
application software.
The purpose of any standard is to ensure that repeatable results are being created every time,
whether that be in the measurement and evaluation of data or whether that is in the evaluation of
data against allowable limits.
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What are the harmonics ?
• In a normal ac power system, voltage
varies sinusoidal
• With non-linear loads such a rectifiers
and switches, the current draw is not
necessarily sinusoidal
• The waveform is then complex
• The complex waveform can
be decomposed into individual
sinusoidal components
• These harmonic components impact
motors, transformers, cabling and other
electrical components
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Identifying harmonics waste
Power quality analyzers display a spectrum graph of harmonic components present in a system, but the graph on its own
does not quantify the amount of energy wasted by harmonics.
Harmonics cause:
• unusable power, drawn from utility but not
converted to actual work
• high current to flow in neutral conductors
• motors and transformers to run hot, decreasing
efficiency and shortening lifespan
• increased susceptibility to voltage sags
• reduced transformer efficiency — or, a larger
unit is required to accommodate harmonics.
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The insidious 3rd harmonic
Technical lesson
400
300
200
100
0
-100 0
-200
-300
-400
On a three-phase / four-wire system, triplen (zero
sequence) harmonics will add up in the neutral.
This is true for all triplen harmonics including 6th, 9th, 12th,
15th
3rd Harmonics are created
from Non-linear loads:
•Diodes
•Transistors
•Electric motors
•SMPSs (switch-mode
power supply)
400
300
200
100
0
-100 0
-200
-300
-400
400
300
200
100
0
-100 0
-200
-300
-400
90
180
270
360
90
180
270
360
90
180
270
360
The third harmonics are all in phase
and create unbalance
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Harmonic sequences
Technical lesson
Positive, negative, zero sequence
Sequence
Rotation Effects (from skin effect, eddy currents, etc.)
Positive
Forward
Heating of conductors, circuit breakers, etc.
Negative
Reverse
Heating as above + motor problems
Zero
None
Heating + neutral current in wye systems
Effects of harmonic sequences
Name
F
2nd
3rd
4th
5th
6th
7th
8th
9th
Frequency
50
100
150
200
250
300
350
400
450
Sequence
+
-
0
+
-
0
+
-
0
Note: If the waveform has no dc offset then it has no even harmonics
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Fluke 438 Series II: Power Quality And Motor Analyzer
Energy Wastage in Cable
Energy Wastage through Reactive Load
Energy Wastage through unbalance load
distribution
Energy Wastage through Harmonics issues
Energy Wastage through High Neutral current
Very
Important
Benefits of Fluke 438 Series II Power Quality And Energy Analyzer
• Quantify Energy wastage in your Power System for effective identify Utilities Saving
• Efficiently detects ”Root Causes” of Power Quality Issues
• Effective Predictive Maintenance tools to enhance equipment lifespan and have a
good understanding of the condition of your control system.
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Partial Discharge
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What is acoustic imaging?
• A technique to create an image of the scene based on the sounds in the scene
• The sound image is then overlaid onto a visible image
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Why does Power Transmission/Distribution Plant
need ii910?
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Why Do People Care About Partial Discharge?
• Unplanned downtime/outage caused by PD can lead to loss
of revenue and impact the community at large
• Eg. Loss of generated electricity of approx. 1,000 USD per
minute for a medium sizes power generation facility.
• Additional costs for repairs and equipment damage
• Energy waste
• High penalty from government
• Undetected PD will cause arch flash or even explosion →
Safety risk for human and equipment
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Ii910 Real Application – Detecting PD in Transformer
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Ii910 Real Application - Inspecting PD in Electrical Distribution System
Detection of Partial Discharges and Arcing in HV/MV electrical cabinets and on busbars
❑ Safety: able to detect from safe distances
❑ Effective and fast in location of PD
❑ Easy to use with minimum training required
❑ Documenting with pictures
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Ii910 Real Application - Inspecting PD in Electrical
Distribution System
Detection of Partial Discharges (and Corona) on Distribution Lines and Switchgears
❑ More effective in outdoors than ultrasonic tools
❑ Fast routing
❑ Easy for untrained users
❑ Documenting with pictures
Inside of the cabinet with severe PD
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Battery Health Prediction
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• Power protection systems in medical institutions have higher standards than those for commercial or industrial use
Under most circumstances, a hospital losing power could be the difference between life
and death for any number of patients who are reliant on its systems functioning at
optimum levels.
• Batteries operate by converting chemical energy into electrical energy
through electrochemical discharge reactions.
• Batteries are composed of one or more cells, each containing a
positive electrode, negative electrode, separator, and electrolyte
• Batteries are rated in terms of their nominal voltage and ampere-hour
capacity
Type of Battery
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+
=
RSOB operation
Switch with one button and
continue at break point
+
Meter mode
for quick ad-hoc battery
test
Dual mode combines the simplicity of DMM and
functionality of string data management. Will be
easy to get going for both entry level user and
sophisticated user.
=
Sequence Mode
Maintenance tasks with multiple
power systems and battery
strings
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Step 2: Internal Resistance + Voltage + Temperature
Even more accurate
• The spot of the IR sensor is focused on the battery
negative post during measurement. So, the battery
internal temperature can be tested accurately through
the negative post.
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• Coaxial probe
– One pole carries current
– One pole senses voltage
– Insulator
• The rugged probes are sharp to ensure good contact with metal parts.
• Each type of test probe has the same Kelvin arrangement
Probe breaking testing
Fluke done 17000 times press test and result the
Kelvin probe no breaking and its proven.
The probe its strengthens and very robust
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• Most battery manufacturers specify <0.5% AC ripple voltage of
the DC voltage
• High ripple voltage will produce
ripple current battery temperature
and resulting energy loss
• Temperature conversion rate
is about: 4.6 W/m²/ °C
• Damage to the battery life of battery
temperature increases
• High ripple voltage may be due poor quality or poorly performing
charging equipment
• Up to 20 ripple voltage readings can be saved in one profile .
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Historical trend data of batteries
Histogram of a battery string with user
defined threshold
Multiple rounds of discharge voltage
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Transfer time identification
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Impact Of UPS Transfer Time (ScopeMeter)
Is this going to charge up?
Zoomed detail of a failed switchover
Zoomed detail of a correct switchover
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AC and DC testing
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Transformer Application
Customer Name – ABB (Low Voltage Drives Division)
Application – To measure the Output efficiency of Low Voltage Drives -- Quality check before dispatch
Model sold – Fluke Norma 6004 & 6004+ (Value – 20 KUSD)
Customer Pain Points
Fluke Offered Values
•
Measurements on Output side of VFD
•
3 Phase V-pwm and Arms Signals measurements at
Output of drive
•
Unable to measure waveforms
(Vpwm, Arms & Hz, THD V/A)
•
More than 15 parameters visible in a single screen
(Vpwm, Arms, THD & Power etc...)
•
Measurement upto 100th Harmonic & Wider
Bandwidth of 500KHz
•
Portability & Battery operation (10 Hours Backup &
Avoids additional power supply in field)
•
32GB in-built memory
•
CAT-III & CAT-IV rated product for field testing
•
Need to measure above 50th Order Harmonics
•
Requirement of portable product (Battery
Operated)
•
Memory issue @ field usage
•
Safety concern on field usage
Fluke Norma 6004
LV – Drives
Other features Considered by ABB :
• Synchronizing 2 instruments for comparing the efficiency of the drives (input & out put)
• Measuring Torque & Speed in 6004+ for verification of motors
• Reliable results
• Simple in Operation
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EV battery application
Customer: LG Chemical (EV Battery)
Application: DC measurement when EV is in operation
• Battery output DC current & voltage
• Inverter output
• Log data for DC current & voltage trend and DC Transient (instantaneous
DC impulse or current out-flow exceeding the proper load.
Fluke Solution: Norma 6004 with 2000A clamp (70% probability in 2021)
Fluke Offered Values:
• Portability with battery power supply in field
• 32GB in-built memory
• CAT-III & CAT-IV rated product for field testing
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POLL QUESTION No. 3
?
What is the measurement parameter can capture using Fluke 6004+?
(Click only one answer)
A. Harmonic . AC+DC measurement , Motor analysis, inverter efficiency
B. Signal injection and signal verification
C. Network analysis
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Q&A
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Thanks!!!
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DEMO POLL QUESTION
?
Do you wish to know more about the following products?
(Click all that apply)
▪ Fluke ii910 Precision Acoustic Imager
▪ Fluke TiX580 Infrared Camera + Tele lens
▪ Fluke 1625-II + Split core
▪ UAT 620 Underground Cable Locator
▪ TIC 300 High Voltage Detector
▪ Fluke 438-II Power Quality Analyzer & Motor
Analyzer
▪ Fluke BT-521 Battery Tester
▪ Fluke Normal 6004+
▪ Fluke 125B scope meter
▪ Fluke Normal 6004+
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THANK YOU!
p
Email Fluke South East Asia:
FSEA.info@fluke.com
For related product information, go to:
https://www.fluke.com/en-sg
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