Comments of the MISO Transmission Owners Transmission Facilities Not Subject to a Federal Right-of-First-Refusal Proposed Operations and Maintenance Qualifications for Incumbent and Non-incumbent Transmission Developers Comment [A1]: General Comment: The Owners agree that there needs to be an ongoing obligation on a project developer to operate and maintain the facilities they build. However, the Owners have several questions about this document including: whether it imposes more stringent requirements than are currently required by NERC; who will be responsible to monitor and enforce these requirements once a project is in service? There does need to be some recognition by developers of ongoing responsibilities, but this document is overly detailed and prescriptive. Draft White Paper April 2012 2 Comments of the MISO Transmission Owners 1. Definitions Applicable Authority. The entity assigned to review and approve qualifications for Transmission Developers to own, operate and maintain transmission facilities not subject to a Federal right-of-first-refusal. This entity could be a state regulatory commission, MISO or another entity. New Substation. An entire Terminating Substation proposed within a specific transmission project that does not exist prior to implementation of that transmission project. New Substations do not include expansions to existing substations where substation expansions include i) expanding or upgrading facilities within the substation footprint, ii) expanding the substation footprint within the current site boundaries or iii) procuring additional land adjacent to or near the existing substation site and expanding the substation footprint into or adding substation facilities on the additional land. State. A state or commonwealth within the United States or a province within Canada that contains transmission facilities turned over to the functional control of the Midwest Independent Transmission System Operator. Tapped Substation. A distribution substation serving load that is tapped off of a Transmission Circuit but is not considered a terminal of the Transmission Circuit and does not include circuit breakers to isolate the Transmission Circuit when a short-circuit fault occurs on the Transmission Circuit. Terminating Substation. A substation located at one of the terminals of a Transmission Circuit that contains one or more circuit breakers to automatically isolate the Transmission Circuit when a short-circuit fault occurs on the Transmission Circuit. Transmission Circuit. A high voltage DC or three-phase AC electrical circuit located external to a substation and installed between two or more substations for the purpose of transporting electrical energy between the substations. Transmission Circuit Midpoint. For two terminal Transmission Circuits, the point on the Transmission Circuit equidistant between the two terminals of the Transmission Circuit. For three terminal Transmission Circuits (i.e., three-point lines), the point on the Transmission Circuit where the three legs of the Transmission Circuit interconnect. Transmission Line. One or more Transmission Circuits, or portions thereof, supported by common structures if overhead or installed in common duct banks if underground. A Transmission Circuit may consist of more than one Transmission Line. 3 Comments of the MISO Transmission Owners Transmission Developer. A pre-qualified i) incumbent Transmission Owner or ii) nonincumbent developer of transmission projects and subsequent owner of the associated transmission facilities for any transmission facilities not subject to a Federal right-of-firstrefusal that are within the MISO footprint that have been turned over to the functional control of MISO. Hereinafter generally referred to as the “entity”. Type A Transmission Circuit. A Transmission Circuit not designated as a Type B Transmission Circuit. Type B Transmission Circuit. A Transmission Circuit that i) contains field switching devices located external to a substation (e.g., gang-operated switches mounted on transmission structures, etc.) and/or ii) connects to one or more Tapped Substations or other loads or generators tapped directly off of the Transmission Circuit. 2. Introduction This white paper outlines proposed operations and maintenance qualifications for entities that plan to implement, own, operate and maintain transmission projects not subject to a Federal right-of-first-refusal. The operations and maintenance qualifications proposed in this white paper do not alter the obligations of incumbent Transmission Owners for transmission projects that will remain subject to a right-of-first-refusal (i.e, as to which such right need not be eliminated), including i) existing transmission facilities; ii) transmission facilities approved for construction in an MTEP planning cycle prior to the first MTEP planning cycle where the rightof-first-refusal will be implemented to the extent applicable and iii) implementation of future transmission that will continue to be subject to a right-of-first-refusal. The operations and maintenance requirement represented by the qualifications proposed in this white paper apply to entities after the facilities are placed in service. Requirements to implement transmission projects prior to the in-service date and requirements for project bids are discussed in separate white papers. This white paper introduces independent qualifications for i) operating and maintaining Transmission Line facilities and ii) operating and maintaining New substation facilities. Ownership of Transmission Line facilities after the facilities are in service requires compliance with i) above and ownership of New substation facilities after the facilities are in service requires compliance with ii) above. Ownership of Transmission Lines and New substation facilities requires compliance with both i) and ii) above. All operations and maintenance qualifications will be applied on a State by State basis, and it is possible that a specific entity could be qualified in one State and not be qualified in another State, or the level of qualification (i.e., ability to own, operate and maintain substations vs. Transmission Lines vs. both types of facilities) could vary from State to State as well. 4 Comments of the MISO Transmission Owners The remainder of this white paper is organized into the following sections: Transmission Line Facility Operations and Maintenance Qualifications New Substation Facility Operations and Maintenance Qualifications The proposed point of demarcation between “Transmission Line facilities” and “substation facilities” is assumed to be a vertical plane located somewhere between i) the property boundary of the tract of land owned or leased by the substation owner that contains the substation and ii) the substation footprint (the ground grid footprint or fence if the ground grid does not extend beyond the fence). Provisions will be needed to adjust the point of demarcation when future substation expansions requiring additional land or an expanded footprint are developed. 3. Transmission Line Facility Operations and Maintenance Qualifications Transmission Line facility operations and maintenance qualifications are organized as follows: i) Transmission Circuit forced outage response, ii) Transmission Circuit switching, iii) Transmission Line spare parts, iv) Transmission Line emergency repair, v) Transmission Line preventative maintenance program and vi) Transmission Line modeling and records. These qualifications are discussed below: 3.1. Transmission Circuit Forced Outage Response A Transmission Circuit forced outage is defined as the automatic or manual removal of a Transmission Circuit from service due to i) a permanent short-circuit fault, ii) a temporary short-circuit fault that persists through the entire reclosing cycle, iii) a shortcircuit fault in another zone of protection where operation of remote backup protection or breaker failure protection was necessary, iv) a power system swing, v) an overload on the Transmission Circuit, vi) manual removal of a Transmission Circuit from service due to an imminent short-circuit fault or to mitigate a potential safety issue or vii) false operation of a protective relay scheme. Momentary outages where reclosing is successful will not be considered forced outages for the purpose of these qualifications. In cases where the Transmission Circuit is removed from service due to i) a short-circuit fault in another zone of protection (i.e., operation of remote backup protection or breaker failure protection), ii) a power system swing, iii) an overload on the Transmission Circuit or iv) false operation of a protective relay scheme, these situations represent system operational problems not directly related to the specific Transmission Circuit, and thus there is generally no forced outage response required by the entity to address issues specific to the Transmission Circuit. In cases where the Transmission Circuit is removed from service due to i) a permanent short-circuit fault, ii) a temporary shortcircuit fault that persists through the entire reclosing cycle or iii) manual removal due to an imminent short-circuit fault or to mitigate a potential safety issue, these situations 5 Comment [A2]: Owner Comment: Too detailed. This should just say that a forced outage is the unplanned automatic or manual removal of a Transmission Circuit where automatic reclosing is not successful. Comment [A3]: Owner Comment: Delete. Unnecessary. Comments of the MISO Transmission Owners represent issues directly related to the specific Transmission Circuit, and thus the entity must respond to troubleshoot and correct the problem so that the Transmission Circuit can be returned to service as soon as possible. The entity must have someone on call on a 24/7 basis to initiate the entity’s forced outage response plan. In addition, the entity must have in place some method to detect forced outages on Transmission Circuits (e.g., if the entity does not own the Terminating Substations, they will likely need to work out an agreement with the owners of these substations to monitor the Transmission Circuit on their behalf and contact and update their on-call personnel upon a forced outage, etc.) Upon detection or notification of a forced transmission outage on one or more Transmission Circuits owned by the entity, the entity will immediately initiate forced outage response for the Transmission Circuit(s) in accordance with the Transmission Circuit forced outage response plan. Transmission Circuit forced outage response plans must be developed for each State where a entity owns or operates one or more Transmission Line facilities and must be approved by the Applicable Authority. Each Transmission Circuit forced outage response plan should be updated monthly (??) and forwarded to the Applicable Authority within five (??) business days. The Transmission Circuit forced outage response plan should include the following components: Call-out plan List of entity personnel or contractors assigned to provide emergency response to forced Transmission Circuit outages including contact information of all assigned personnel and at least two on-call employees for each contractor. There should be at least one employee or contractor that has access to a helicopter that can be used to fly the Transmission Circuit if the circuit length exceeds 20 (??) miles. This employee or contractor must be available to commence air patrols with 24 (??) hours notification if a Type A Transmission Circuit or 4 (??) hours notification if a Type B Transmission Circuit. If contractors are used for emergency response, the list of contractors must include at least two contractors able to begin ground patrols with 24 (??) hours notification if a Type A Transmission Circuit or 4 (??) hours notification if a Type B Transmission Circuit. The plan must list the location of the base of operations for each of these contractors and an explanation of how they will satisfy the response time requirements if located more than 250 (??) miles from the Transmission Circuit Midpoint 6 Comment [A4]: Owner Comment: Some Owners use both “on call” procedures and employees subject to “call-out.” The difference is significant because as many times first responders are employees subject to call-out (they drive their trucks home) as opposed to being “on-call,” which means something different in terms of requirements to respond. These Owners would prefer a note here indicating that call-outs are allowed as well as oncall. Comment [A5]: Owner Comment: Delete. Not necessary to review/update monthly. This should simply say that if it is updated, it needs to be forwarded to MISO in 10 business days. Comment [A6]: Owner Comment: Would MISO actually need the names of the personnel, or would a telephone number that is monitored suffice? Comment [A7]: Owner Comment: It is not necessary to provide a list of names of entity personnel, maybe just the number of approved staff level that respond to emergency forced transmission line outages. Comment [A8]: Owner Comment: This should not be restricted to helicopters. Other aerial patrols are used. Comment [A9]: Owner Comment: Should be the same as for Type B. Comment [A10]: Owner Comment: This requirement should be eliminated. Poor weather can prevent this response. As long as there is a plan to restore in a timely fashion, that should be sufficient. Also, we do not adhere to these times today. Comment [A11]: Owner Comment: Don’t differentiate between Type A & B. Both should be 24 hours. Comment [A12]: Owner Comment: Should be the same as for Type B. Comment [A13]: Owner Comment: Don’t differentiate between Type A & B. Both should be 24 hours. Comments of the MISO Transmission Owners if a Type A Transmission Circuit or more than 50 (??) miles from the Transmission Circuit Midpoint if a Type B Transmission Circuit. If personnel are used for emergency response, personnel must be available to commence line patrolling within 24 (??) hours if a Type A Transmission Circuit or 4 (??) hours if a Type B Transmission Circuit. The plan must list the location of the base of operations for forced outage response personnel and an explanation of how they will satisfy the response time requirements if located more than 250 (??) miles from the Transmission Circuit Midpoint if a Type A Transmission Circuit or more than 50 (??) miles from the Transmission Circuit Midpoint if a Type B Transmission Circuit. The Transmission Circuit forced outage response plan should include Pprocedures for coordinating with the owners of the Terminating Substations, owners of other sections of the Transmission Circuit and, if a Type B Transmission Circuit, owners of Tapped Substations to i) obtain clearance, ii) obtaining headway and iii) obtaining information from fault recording devices and digital relays with fault locating algorithms installed in the Terminating Substations. The entity is expected to have procedures in place to maximize the use of information provided by fault recorders and fault locating relays in Terminating Substations whether or not they own the Terminating Substations. When the cause of the forced outage is determined, the entity should initiate the process to make Eemergency repair plans in accordance with the Transmission Line emergency repair qualifications outlined in Section 3.4 unless a major storm/event (e.g., hurricane, etc.) for the corresponding geographic area has been declared by MISO, in which case emergency repairs should be initiated as soon as practical based on the relative priority of the forced outage with respect to other forced outages. Plan for coordinated operations with other Transmission OwnersIf no forced outage cause is found, the entity should have procedures included in the Transmission Circuit forced outage response plan to work with the owners of the Terminating Substations (if different than the entity), owners of other sections of the Transmission Circuit and, if a Type B Transmission Circuit, owners of Tapped Substations to attempt to place 7 Comment [A14]: Owner Comment: Don’t differentiate between Type A & B. Both should be 24 hours. Comment [A15]: Owner Comment: What does this mean? Comments of the MISO Transmission Owners the Transmission Circuit back in service in a manner that minimizes risks to personnel and public safety, equipment damage and adverse impacts on BES reliability. 3.2. Transmission Circuit Switching Qualifications to perform Transmission Circuit switching applies only to entities that own one or more Type B Transmission Circuits within a given State since Type A Transmission Circuits contain no switching devices by definition. Type B Transmission Circuits may contain field switches (i.e., switches not located within substations) installed for sectionalizing purposes that must be operated by the entity. Examples of this situation include i) switches located on structures near the point where a radial tap extends from the Transmission Circuit to feed a load or distribution substation, ii) switches on either side of a Tapped Substation in situations where these switches cannot be installed within the Tapped Substation due to space or other limitations or iii) switches on each leg of a three-terminal line located at or near the Transmission Circuit Midpoint. For a forced outage of the Transmission Circuit or for other operational reasons, timely switching may be required to ensure Bulk Electric System reliability and to minimize the duration of service interruptions to customers. Switches in series with the Transmission Circuit and located within a Tapped Substation will normally be owned and operated by the owner of the Tapped Substation (e.g., Load Serving Entity), but there could be arrangements where the entity owns and operates these switches or operates these switches on behalf of the Tapped Substation owner via an agreement, in which case the corresponding Transmission Circuit must be designated as a Type B Transmission Circuit. If all sections of a Type B Transmission Circuit that contain switching devices are owned and operated by other owners, then the Transmission Circuit qualifications will not be applicable to the entity for their portion of the Transmission Circuit. Transmission Circuit switching policies must be developed for each State where a entity owns or plans to own a Type B Transmission Circuit and must be approved by the Applicable Authority. Each Transmission Circuit switching policy should be updated monthly (??) and forwarded to the Applicable Authority within five (??) business days. The Transmission Circuit switching policy must contain the following components: A NERC certified system operator with Reliability Coordinator certification or Transmission Operator certification switching supervisor employed by the entity must be available on a 24/7 basis to write and issue switching orders. The switching supervisor can be on-call or working on a 8 Comment [A16]: Owner Comment: There is no need to update this monthly. Comments of the MISO Transmission Owners shift. There is no limitation on the location of the switching supervisor other than he/she must be based within the continental United States. The switching supervisor should be qualified to write and issue transmission switching orders through successful completion of a certified training program. The switching supervisor must maintain contact information to communicate with other asset owners, including but not necessarily limited to, owners of the corresponding Terminating Substations, owners of any Tapped Substations along the Transmission Circuit and owners of other sections of the Transmission Circuit if various sections are owned by different entities. The switching supervisor must maintain up-to-date copies of detailed one-line switching diagrams of all owned Type B Transmission Circuits that are either entirely under his/her jurisdiction or a portion thereof, as well as detailed one-line switching diagrams for all corresponding Terminating Substations and Tapped Substations regardless of who owns these substations. The switching supervisor may or may not be the same individual that initiates the entity’s forced outage response plan. To ensure safety and reliability, prior to issuing any switching orders, the switching supervisor shall coordinate with the switching supervisors on duty that have switching jurisdiction over corresponding Terminating Substations and, if applicable, Tapped Substations and other sections of the Transmission Circuit owned by other entities to obtain the current status of all switching devices within these substations and along the entire Transmission Circuit. The switching supervisor will coordinate issuance of switching orders with these other switching supervisors including updates when switching orders have been completed. List of entity personnel assigned to operate field switches including contact information of all assigned personnel and at least two on-call employees that can immediately respond. Field switching personnel should be qualified to execute transmission switching orders through a certified training program. Contractors are not permitted to be used for operation of field switches. Personnel used for field switching should be available to commence field switching with 4 (??) hours of notification. The Transmission Circuit switching policy must list the location of the base of operations for switching personnel and an explanation of how they will satisfy the response time requirements if located more than 50 (??) miles from any Transmission Circuit Midpoint. Procedures for non-emergency switching to facilitate planned maintenance outages or restore service following emergency repairs must be included 9 Comment [A17]: Owner Comment: Delete. This is covered if the operator is certified. Comment [A18]: Owner Comment: This seems too short. Many lines are more than 100 miles. Comment [A19]: Owner Comment: Lists would be impossible to keep up with. Contractors must be allowed to switch. Also, does a “certified” training program exist? Also, it is unclear whether entities could meet the time criteria. Comments of the MISO Transmission Owners in each entity’s Transmission Circuit switching policy. These procedures should ensure coordination between the entity and the owners of the corresponding Terminating Substations, Tapped Substations and other sections of the Transmission Circuit for each Type B Transmission Circuit, including i) coordination of switching order issuance, ii) updates on switching completion and iii) development of an overall switching strategy and sequence that takes into consideration both the switching device type (e.g., substation circuit breaker with relays, air-break switch with vacuum interrupter attachments, air-break switch with arcing horns, hook stick disconnects, etc.) and the switching operation type (e.g., making or breaking parallel, interrupting charging current, interrupting load when necessary, energizing a dead line, etc.) to ensure the appropriate switching devices are used to perform the appropriate switching tasks. Any clearance or headway issued must be issued to an employee of the entity even if the work is performed by a contractor. It will be the responsibility of this employee to release clearance or headway when he/she has verified conditions are acceptable for releasing clearance and/or headway. 3.3. Transmission Line Spare Parts For each Transmission Line owned by an entity, the entity must maintain sufficient spare parts in inventory to make emergency repairs within a reasonable time frame. The quantity of spare parts to be maintained should be sufficient to rebuild the longest span of a Transmission Line between double dead-end structures for all Transmission Lines owned by the entity within a given State. To reduce inventory carrying costs and speed restoration of service following a major forced outage, it is not necessary to use the same line design for emergency repairs so long as any reduced rating is coordinated with the MISO andi) the normal and emergency Transmission Circuit ratings are not reduced, ii) the line design complies with regulatory requirements and iii) the line design complies with all applicable standards and codes including, but not limited to, NERC reliability standards, regional reliability standards and the National Electric Safety Code. However, the entity will be required to restore the Transmission Line to its original design within one year of the forced outage via one or more planned outages. For example, if a 345 kV single-circuit Transmission Line is designed using steel lattice towers and bundled 954 ACSR conductor sagged at 125 degrees C, and a tornado destroys seven spans of the line between double-dead end structures, it is permitted to replace the damaged line section on a temporary basis with bundled 336 ACSS 10 Comment [A20]: Owner Comment: How does this compare with the requirements below to have 3 tangent structures, one double deadend, etc.? In addition, the statement “all Transmission Lines” could be read to mean that an entity needs to be able to back up 100% of its lines for a single event which is surely not the intent. It would be better to limit the number of concurrent line outages to be backed up with some sort of clarifying phrase. Comment [A21]: Owner Comment: What does this mean? Is it necessary? Comments of the MISO Transmission Owners conductor sagged at 200 degrees C and installed on guyed wood H-frame structures so long as the temporary replacement complies with all applicable regulatory requirements, reliability standards and construction codes. In this example, the damaged line section is temporarily replaced with an alternative design that has comparable ratings, but higher impedance and losses, and perhaps higher long-term maintenance requirements. In this example, the entity is obligated to replace the temporary line section with a permanent line section built according to the original design (rating, impedance, structure design, etc.) and using materials comparable to or superior to the original design within one year of the forced outage. At a minimum, an entity should carry sufficient inventory at all times to completely replace three tangent structures, one running angle structure, one double dead-end structure and one angle dead-end structure for each original structure design (steel lattice, steel H-frame, wood H-frame, steel pole, wood pole, etc.) owned by the entity within a State. This inventory should include insulators, connectors and all other materials (e.g., attachment hardware, guying materials, grounding materials, stub poles, anchor bolts, etc.) required for complete structure replacement, and allowances should be made to maintain sufficient inventory for variations in structure or pole heights and/or pole classes. In addition, at a minimum, the entity should maintain sufficient inventory to replace five spans of conductor and shield wire for each conductor and shield wire type and size used within a State per the original design. The location of spare parts must be maintained such that the parts are available on site with 24 (??) hours notice. For small parts such as attachment hardware and connectors, materials can be stored anywhere within the continental United States so long as they can be shipped on site with 24 (??) hours notice. For larger parts such as suspension or strain insulator units, poles, crossarms, davit arms, structure assemblies or conductor reels, the spares parts policy should contain an explanation of how the response time requirements will be met if the parts are stored at a location more than 250 (??) miles from the Transmission Circuit Midpoint. The entity is expected to maintain a spare parts policy for each State listing minimum inventory levels, storage locations and emergency transportation procedures and arrangements. Each policy must be approved by the Applicable Authority. Each policy should be updated quarterly (??) and a copy provided to the Applicable Authority within five (??) business days. With regard to planned maintenance outages, the entity should arrange to have all materials in hand prior to switching out the Transmission Circuit to avoid an excessive planned outage duration. These materials should be located on site at the time the Transmission Circuit is switched out of service. 11 Comment [A22]: Owner Comment: How does this compare with the requirements below? Comments of the MISO Transmission Owners 3.4. Transmission Line Emergency Repair Transmission Line emergency repair includes fixing or replacing one or more failed components on a Transmission Line or clearing a permanent short-circuit fault from a Transmission Circuit. Transmission Line maintenance and repair is generally initiated as a result of a forced outage or a report from the public on an abnormal or unsafe condition associated with a Transmission Line. The entity should have in place a Transmission Line emergency repair policy for each State where the entity owns Transmission Line facilities that outlines practices and procedures for making emergency repairs to Transmission Lines. Each Transmission Line emergency repair policy must be approved by the Applicable Authority. Each Transmission Line emergency repair policy should be updated quarterly (??) and a copy provided to the Applicable Authority within five (??) business days. The Transmission Line emergency repair policy should include the following: List of personnel or contractors assigned to provide emergency repair services including contact information of all assigned personnel and at least two on-call employees for each contractor. If contractors are used for emergency repair, the list of contractors should include at least two contractors available to commence emergency repair work with 24 (??) hours notification if a Type A Transmission Circuit or 4 (??) hours notification if a Type B Transmission Circuit. The Transmission Line emergency repair policy must list the location of the base of operations for each of these contractors and an explanation of how they will satisfy the response time requirements if located more than 250 (??) miles from the Transmission Circuit Midpoint if a Type A Transmission Circuit or more than 50 (??) miles from the Transmission Circuit Midpoint if a Type B Transmission Circuit. Contractors performing emergency maintenance should have ten years experience maintaining and constructing transmission and distribution lines. If entity personnel are used for emergency repair work, personnel should be available to commence emergency repair work with 24 (??) hours notification if a Type A Transmission Circuit or 4 (??) hours notification if a Type B Transmission Circuit. The Transmission Line emergency repair policy must list the location of the base of operations for emergency repair personnel and an explanation of how they will satisfy the response time requirements if located more than 250 (??) miles from the Transmission 12 Comment [A23]: Owner Comment: It is not necessary to update this quarterly. Comment [A24]: Owner Comment: This section looks like a repeat of Section 3.1 requirements. Comments of the MISO Transmission Owners Circuit Midpoint if a Type A Transmission Circuit or more than 50 (??) miles from the Transmission Circuit Midpoint if a Type B Transmission Circuit. When abnormal conditions are reported by the public, Pprocedures to inspect should be in place to have the condition of the facilityinspected by an entity representative (employee or contractor) within a reasonable amount of time (not more than eight (??) hours) or arrangements should be made with the Terminating Substation owners ahead of time to deenergize the Transmission Circuit(s) until such time as the entity can inspect the Transmission Line. When unsafe conditions are reported (e.g., live conductors near the ground, pole fire, etc.), procedures should be in place for the Terminating Substation owners to immediately de-energize the Transmission Circuit(s) without prior permission of the entity. The Transmission Line emergency repair policy should list the types of tools and equipment needed for emergency repair including vehicles, heavy equipment, live line tools, conventional tools, rubber goods and other required tools and equipment. The policy should state if this equipment is owned by the entity, the contractor or another entity and the emergency procedures for obtaining the equipment if not owned by the entity or contractors. 3.5. Transmission Line Preventative Maintenance Program Transmission Line preventative maintenance includes patrolling and inspecting Transmission Lines on a routine schedule, identifying maintenance requirements and scheduling maintenance work to fix or replace components as necessary to minimize the probability of a forced Transmission Circuit outage or correct an unsafe condition. The entity shall develop a Transmission Line preventative maintenance plan for each State that must be approved by the Applicable Authority. The Transmission Line preventative maintenance plan should be updated annually (??) and a copy provided to the Applicable Authority within ten (??) business days. Each Transmission Line preventative maintenance plan should outline specific Transmission Line patrol and inspection cycles and methods, including patrol methods (e.g., air vs. ground patrols), use of specialty contractors for specialized inspections (e.g., wood pole inspections, etc.) and/or use of any special inspection equipment (e.g., infrared equipment, etc.). Each Transmission Line preventative maintenance plan should list the personnel or contractors that will be used to perform preventative maintenance, and an overall schedule of inspection and patrol activities. 13 Comment [A25]: Owner Comment: Does this present a CIP issue? Comments of the MISO Transmission Owners The results of the preventive maintenance inspections and patrols should be used to schedule maintenance work, including like-for-like capital replacements of FERC retirement units (e.g., replacement of a transmission structure, etc.), to avoid forced outages and/or unsafe operating conditions. Non-emergency repairs should be scheduled within a reasonable time frame, but not more than 90 (??) days from the date of the inspection. Emergency repair work identified during a preventative maintenance inspection should be scheduled within 24 (??) hours or as soon as practical thereafter. The preventative maintenance plan must also include a vegetation management plan, including cycles for trimming trees to ensure appropriate clearance at all times, mowing or bush hogging rights-of-way, removing vegetation growth from poles or structures and routine inspections of right-of-ways to identify and tag for removal danger trees (dead trees or leaning trees that could potentially fall into a Transmission Line) that represent an elevated risk of a forced Transmission Circuit outage. The vegetation management plan should be developed to comply with applicable NERC and regional reliability standards (e.g., NERC FAC-003, etc.). There should be procedures in place for the entity to coordinate planned maintenance outages with the MISO, Terminating Substation owners and, if applicable, Tapped Substation owners and owners of other sections of the Transmission Circuit including requests for clearance or headway from these other entities to perform non-emergency maintenance work. For non-emergency maintenance work, the entity may use personnel or contractors, and there is no requirement on the location of their base of operations other than it be in the continental United States. Planned maintenance outages, including issuance of clearance and/or headway, should not commence prior to the time when the maintenance and repair crews are on site and ready to work to minimize the duration of the planned maintenance outage. When practical, clearance or headway should be given up at the end of each workday so that the Transmission Circuit can be returned to service and/or reclosing can be enabled until work is scheduled to begin again. Contractors performing non-emergency maintenance should have ten years experience maintaining and constructing transmission and distribution lines or, if a specialty contractor such as a foundation contractor, ten years of experience in their specialty area. 3.6. Transmission Line Modeling and Records An entity must maintain models of all Transmission Circuits that can be used in power flow simulations, dynamic simulations, production cost modeling simulations and short-circuit simulations. These models must include load information for any loads tapped off of a Type B Transmission Circuit. Model updates for power flow simulations, dynamic simulations 14 Comment [A26]: Owner Comment: Doesn’t MISO already have these? Comment [A27]: Owner Comment: Not sure if this rules out some of the contractors that some Owners use. Comments of the MISO Transmission Owners and production cost modeling simulations must be forwarded to MISO using the Model on Demand (MOD) application. Model updates for short-circuit simulations, which include positive and zero sequence models for Transmission Circuits, should be submitted to MISO and the entity responsible for performing short-circuit analysis in the area. The entity must maintain as-built records for each Transmission Line facility and must update these records when changes are made. The as-built records include, in addition to models, i) as-built one-line switching diagram of all Transmission Circuits, ii) as-built planprofile drawings for all Transmission Lines and iii) as-built right-of-way cross section elevation drawings keyed to the plan-profile drawings. The switching diagram should show all terminals, legs, radial taps, Tapped Substations, switches and arresters. The switching diagram should indicate mileages, conductor information and impedances for each section of the Transmission Circuit. The entity should retain the original detailed engineering documentation for each Transmission Line for the life of the facility. The entity must also maintain sufficient records to produce and maintain an accurate Attachment O including information on plant and all applicable expenses. The entity should maintain i) records on forced outages, ii) switching records, iii) emergency repair records and iv) preventative maintenance records regarding inspections and maintenance work for a period of five (??) years. The entity should maintain up-to-date records on all spare parts inventory levels. The entity should retain copies of the current and previously filed policies with the Applicable Authority. Comment [A28]: Owner Comment: This is not a qualification criteria. It is a more of a requirement for TOs, and should be removed from a qualification document. Also, this is more of a transmission planner role, as opposed to Owner? The entity will have to provide the physical parameters of its equipment, but others are more likely to have load and prod cost data. Comment [A29]: Owner Comment: This is not a qualification criteria. It is a more of a requirement for TOs, and should be removed from a qualification document. Maybe the more appropriate place for this is in a process document. Comment [A30]: Owner Comment: This is not appropriate for this document. 4. New Substation Facility Operations and Maintenance Qualifications New Substation facility operations and maintenance qualifications are organized as follows: i) substation real-time operations, ii) substation forced outage response, iii) substation switching, iv) substation emergency testing and repair, v) substation spare parts and equipment, vi) substation preventative maintenance program and vii) substation modeling and records. These qualifications are discussed below: 4.1. Substation Real-Time Operations Entities that own New Substations must providehave a real-time operations center staffed on a 24/7 basis and located within the continental United States. The purpose of the realtime operations center is to monitor substation facilities on a real-time basis, monitor and control voltages, monitor and control power flows on selected facilities, provide real-time telemetry on the transmission system and initiate emergency and non-emergency response when required. Specifically, substation owners will need to provide the following real-time functions for substation facilities which they own, operate and maintain: 15 Comment [A31]: Owner Comment: It seems like this service could be contracted out. Comments of the MISO Transmission Owners Meet MISO data specs and communication requirements Entities that own New Substations should have in place a Supervisory Control and Data Acquisition (SCADA) system that monitors electrical quantities, equipment status and equipment condition remotely. Entities must telemeter real power flows on all tie lines and update the appropriate balancing authorities on a four second basis to facilitate continuous calculation of the applicable Area Control Errors (ACE). Substation owners should also meter real and reactive power flows on all tie lines using settlement quality meters for use in tracking actual interchange. Substation owners should telemeter real and reactive power flows and current flows by phase on all Transmission Circuits, power transformers and circuit breakers as well as voltages levels at all buses both for their own use and for use in state estimation by MISO and other applicable entities. Substation owners must remotely monitor circuit breaker status (open or closed), reclosing status (enabled or disabled), status of shunt capacitor and reactor banks, status of series capacitor and reactor banks when they are switchable and tap positions on automatic load tap changers, voltage regulators and phase angle regulators both for their own use and for use in state estimation by MISO and other applicable entities. Substation owners are highly encouraged to also remotely monitor the condition of substation equipment by monitoring selected equipment parameters or parameter alarms such as SF6 circuit breaker gas pressure or density, transformer top oil temperature, transformer winding temperature, transformer liquid level, transformer vacuum pressure, transformer pump flow indicators, digital relay alarms, lockout relay status, relay targets, transformer nitrogen bottle pressure, battery voltage, circuit breaker trip coil continuity and other equipment parameters. At a minimum, a SCADA monitored station alarm should be established to trigger when monitored equipment parameters are abnormal or in an alarm state so that field personnel can be dispatched to investigate and, if applicable, correct. The operations center must provide Entities that own New Substations should have in place a 24/7 staff at their real-time operations center to monitor bus voltages and power flows and i) remotely switch shunt reactors and capacitors in and out of service, ii) remotely switch series reactors and capacitors as necessary, iii) remotely control static VAR compensators (SVCs) and iv) remotely change tap positions on phase angle regulators, voltage regulators and automatic load tap changers that are not controlled via automatic controls. Remote operation of equipment such as capacitors, reactors, SVCs and tap changing equipment should be in accordance with NERC and regional reliability standards, operating 16 Comment [A32]: Owner Comment: This may be more of a requirement than a qualification. Comment [A33]: Owner Comment: Needs to be NERC certified staff. Possible that the entity could contract this out to a NERC certified operator. Comments of the MISO Transmission Owners agreements and voltage and power flow schedules and should be coordinated with other transmission owners in the area and MISO. EMS Staff to respond to EMS and communication system outages. The operations center must provide Entities that own New Substations should have in place a 24/7 staff at their real-time operations center to write and issue switching orders in accordance with the substation switching qualifications outlined in Section 4.3, initiate forced outage emergency response for facilities within their substations and or Transmission Circuits that terminate at their substations, whether or not these terminating Transmission Circuits are facilities they own, operate and maintain. The 24/7 staff at their operations center should also initiate response to substation alarms and other abnormal conditions at the substation detected by the SCADA system. Comment [A34]: Owner Comment: Needs to be NERC certified staff. Possible that the entity could contract this out to a NERC certified operator. 4.2. Substation Forced Outage Response Criterion A substation forced outage is defined as the automatic or manual removal of any facility within the substation or any Transmission Circuit that terminates at the substation from service. due to i) a permanent short-circuit fault, ii) a temporary short-circuit fault that persists through the entire reclosing cycle, iii) a short-circuit fault in another zone of protection where operation of remote backup protection or breaker failure protection was necessary, iv) a power system swing, v) an overload on a transmission facility, vi) manual removal of a transmission facility from service due to an imminent short-circuit fault or to mitigate a potential safety issue or vii) false operation of a protective relay scheme. Momentary outages where reclosing is successful will not be considered forced outages for the purpose of this qualification. Entities must have someone on call on a 24/7 basis to receive calls from their real-time operations center to initiate the entity’s substation forced outage response plan. Upon notification of a forced transmission outage on one or more facilities within a substation or one or more Transmission Circuits that terminate at a substation owned by the entity, the entity will immediately put into place its substation forced outage response plan. Substation forced outage response plans must be developed for each State where an entity owns or plans to own substations. The substation forced outage response plan must be approved by the Applicable Authority. The substation forced outage response plan should be updated monthly (??) and forwarded to the applicable state authority within five (??) business days. Each substation forced outage response plan should include the following components: 17 Comment [A35]: Owner Comment: This document does not need this level of detail to define forced outage. Comment [A36]: Owner Comment: Too frequent. Comment [A37]: Owner Comment: Needs to be more general or deleted. Comments of the MISO Transmission Owners List of entity personnel assigned to provide emergency response to substation forced outages including contact information of all assigned personnel and at least two on-call employees that can immediately respond. Contractors are not permitted to be used for forced outage response for a substation. The plan must list the location of the base of operations for emergency response personnel and an explanation of how they will satisfy the response time requirements.Personnel used for emergency response for substation forced outages must be available on site to commence substation troubleshooting or switching within 2 (??) hours. The plan must list the location of the base of operations for emergency response personnel and an explanation of how they will satisfy the response time requirements if located more than 50 (??) miles from the substation. The substation forced outage response plan should include procedures for coordinating with the owners and operators of adjacent transmission facilities to i) obtain clearance, ii) obtain headway and iii) obtain information from recording devices from the owners of adjacent transmission facilities that may be useful in troubleshooting (i.e., fault recorder tapes, sequence-of-event recorders, annunciators and alarms, SCADA recorded data, digital relay diagnostics, etc.). The entity is expected to have procedures to maximize the use of information provided by these recording devices and their own recording devices when necessary to troubleshoot substation forced outages. When the cause of the substation forced outage is determined, the entity should initiate any necessary emergency testing and repairs in accordance with the substation emergency testing and repairs qualifications outlined in Section 4.4 unless a major storm/event (e.g., hurricane, etc.) for the corresponding geographic area has been declared by MISO, in which case emergency testing and repairs should be initiated as soon as practical based on the relative priority of the substation forced outage with respect to other forced outages in the area. If no forced outage cause is found, the entity should have procedures included in the substation forced outage response plan to place the transmission facility back in service in a manner that minimizes risks to personnel and public safety, equipment damage and adverse impacts to 18 Comments of the MISO Transmission Owners BES reliability. These procedures should be coordinated with other transmission facility owners and MISO when appropriate. 4.3. Substation Switching For a forced outage of a substation facility or Transmission Circuit terminated to the substation, timely switching may be required to ensure reliability and to minimize the duration of service interruptions to customers. Switching may also be necessary to assist with an emergency condition at a neighboring substation or Transmission Circuit. Furthermore, non-emergency switching is required to facilitate planned maintenance outages and/or implementation of certain operating guides or similar procedures. Entities that own transmission substations must develop a substation switching policy for each State where they own or plan to own substations and these substation switching policies must be approved by the Applicable Authority. Each substation switching policy should be updated monthly (??) and forwarded to the Applicable Authority within five (??) business days. The substation switching policy should include the following components: A minimum of oOne switching supervisor qualified individual employed by the entity must be available assigned to each shift of the real-time operations center and available on a 24/7 basis to write and issue switching orders when required. The switching supervisor should be qualified to write and issue transmission switching orders and issue clearance and headway through a certified training program and must be a NERC certified system operator. The switching supervisor must have contact information to communicate with the owners of adjacent Terminating Substations and Transmission Circuits that terminate at the substation, must have available i) up-to-date detailed one-line diagrams for the substation, ii) up-to-date relay functional diagrams for the substation, iii) up-to-date relay panel drawings for the substation, iv) a map board indicating the real-time status of switching devices at the substation, Transmission Circuits that terminate at the substation (including Tapped Substations if Type B Transmission Circuits) and adjacent Terminating Substations and v) up-to-date switching diagrams for applicable Transmission Circuits (including Tapped Substations) that terminate at the substation and all adjacent Terminating Substations whether or not the Transmission Circuits, Tapped Substations and/or adjacent Terminating Substations are also owned by the entity. To ensure safety and reliability, prior to issuing switching orders, the switching supervisor will coordinate 19 Comments of the MISO Transmission Owners as appropriate with switching supervisors employed by i) other transmission owners that own and operate Type B Transmission Circuits that terminate at the substation, ii) other transmission owners that own and operate adjacent Terminating Substations and/or iii) load serving entities that own and operate Tapped Substations connected to a Type B Transmission Circuit that terminates at the substation in order to ensure proper issuance of switching orders, clearance and headway. This coordination will include updating each other when specific switching orders have been completed. List of entity personnel assigned to execute switching orders in substations including contact information of all assigned personnel and at least two on-call employees that can immediately respond. Substation switching personnel should be qualified to execute transmission switching orders and investigate annunciators, indicators and relay targets through a certified training program. Contractors are not permitted to be used for switching within substations. The plan must list the location of the base of operations for emergency response personnel and an explanation of how they will satisfy the response time requirements.Personnel used for substation switching should be available to commence substation switching within 2 (??) hours of notification. The substation switching policy must list the location of the base of operations for switching personnel and an explanation of how the response time requirements will be satisfied if the base of operations is located more than 25 (??) miles from the substation. The switching policy should include procedures for non-emergency switching to facilitate planned maintenance outages or restore service following emergency repairs. These procedures should ensure coordination between the entity switching supervisor and switching supervisors employed by i) other transmission owners that own and operate Transmission Circuits terminating at the substation, ii) other transmission owners that own and operate adjacent Terminating Substations and/or iii) load serving entities that own and operate Tapped Substations connected to Type B Transmission Circuits that terminate at the substation in order to ensure proper issuance of switching orders, clearance and headway. This coordination should include i) coordination of switching order issuance, ii) updates on switching completion and iii) development of an overall switching strategy and sequence that takes into 20 Comment [A38]: Owner Comment: Should match the requirements for line switching (4 hours). Comment [A39]: Owner Comment: Too short. Comments of the MISO Transmission Owners consideration both the switching device type (e.g., substation circuit breaker with relays, air-break switch with vacuum interrupter attachments, air-break switch with arcing horns, hook stick disconnects, etc.) and the switching operation type (e.g., making or breaking parallel, interrupting charging current, interrupting load when necessary, energizing a dead line, etc.) to ensure the appropriate switching devices are used to perform the appropriate switching tasks. Any clearance or headway issued must be issued to an employee of the entity even if the work is performed by a contractor. It will be the responsibility of this employee to release clearance or headway when he/she has verified conditions are acceptable for releasing clearance and/or headway. Comment [A40]: Owner Comment: This is true for some Owners, but probably not all utilities. 4.4. Substation Emergency Testing and Repairs Substation testing and repairs are often required following a major forced outage. Emergency testing is required to diagnose equipment problems following a forced outage or ensure equipment is in proper operating condition before returning it to service following emergency repairs. Substation emergency repair includes fixing or replacing one or more failed components within a substation and/or clearing a permanent shortcircuit fault from a substation bus or major equipment item. Substation emergency repair is generally initiated as a result of a forced outage or a report from the public on an abnormal or unsafe condition associated with a substation. An entity must develop a substation emergency testing and repair policy for each State where they own substations. Each substation emergency testing and repair policy must be approved by the Applicable Authority. Each substation emergency testing and repair policy must be updated annually (??) and forwarded to the Applicable Authority within ten (??) business days. Each substation emergency testing and repair policy should include the following components: The plan must list the location of the base of operations for emergency response personnel and an explanation of how they will satisfy the safety response requirements.List of emergency testing performed on power transformers following a forced outage and pass/fail criteria for returning the transformer to service. Testing may be done by entity personnel or qualified contractors. Contractors who perform substation testing must be accredited by the InterNational Electrical Testing Association (NETA). For tests performed after a forced outage, contractors should be available on site with the necessary test equipment within 24 (??) hours of 21 Comment [A41]: Owner Comment: This is very restrictive. What would be included in the emergency testing and repair policy? This is unnecessary oversight. Comment [A42]: Owner Comment: Utility and customer goal is minimal outage time, not a defined time limit. A 24 hour time window is excessive. Comments of the MISO Transmission Owners notification. At a minimum, an insulation power factor test and transformer turns ratio test should be performed after a forced power transformer outage before placing a transformer back in service. List of emergency testing performed on circuit breakers after a forced outage and pass/fail criteria for returning the circuit breaker to service. Testing may be done by entity personnel or qualified contractors. Contractors who perform substation testing must be accredited by NETA. For tests performed after a forced outage, contractors should be available on site with the necessary test equipment within 24 (??) hours of notification. The entity should specify in the substation emergency testing and repair policy which tests, if any, will be performed following a forced outage and subsequent repairs for a circuit breaker mechanism failure, circuit breaker interrupter failure and internal circuit breaker short-circuit fault. Comment [A43]: Owner Comment: Depends on the type of breaker and history. Difficult to include all criteria. List of testing performed on protective relay schemes following the failure of a protective relay scheme to operate properly including failures to trip, false trips or overtripping. The substation emergency testing and repair policy should include procedures and methods used to i) test batteries and battery chargers, ii) test individual protective relays including verification of programmed parameters and settings in digital relays, iii) test lockout relays and auxiliary relays, iv) test instrument transformers, v) test communications equipment and vi) perform functional and operational tests of entire protective relay schemes including breaker tripping before returning the relay scheme to service. Protective relay testing should be done by qualified and specialized entity personnel only (i.e., engineers or technicians employed by the entity that specialize in protective relay systems). Comment [A45]: Owner Comment: This depends on the type of failure or fault. Not all of the items need to be checked if a problem is found or a protective device indicates a failure. List of all other emergency substation tests performed by the entity following a forced outage including test procedures and test methods. List of entity personnel or contractors assigned to provide emergency testing and/or repair services including contact information of all assigned personnel and at least two on-call employees for each contractor. If contractors are used for emergency testing and/or repair, the list of contractors should include at least two contractors that can begin emergency testing and/or repair work on the substation within 24 (??) 22 Comment [A44]: Owner Comment: There are too many variations with the various types of breakers installed. Comments of the MISO Transmission Owners hours of notification. The substation emergency testing and repair policy must list the locations of the base of operations for each of these contractors and an explanation of how they will satisfy the response time requirement if located more than 250 (??) miles from the substation. Contractors performing emergency testing and repair should have ten (??) years experience testing substation equipment and maintaining and constructing substations. If entity personnel are used for emergency testing and/or repair work, personnel should be available to commence emergency testing and/or repair work within 24 (??) hours of notification. The substation emergency testing and repair policy must list the locations of the base of operations for these emergency testing and repair personnel and an explanation of how they will satisfy the response time requirement if located more than 250 (??) miles from the substation. When abnormal conditions are reported by the public, procedures should be in place to have the condition inspected by an entity representative (employee or contractor) within a reasonable amount of time (not more than four (??) hours). When unsafe conditions are reported, the entity’s real-time control center should initiate emergency response and personnel should be on site within two (??) hours. The substation emergency testing and repair policy should list the types of tools and equipment needed for emergency testing and repair including vehicles, heavy equipment, test equipment, live line tools, conventional tools, rubber goods and other required tools and equipment. The policy should state if this equipment is owned by the entity, the contractor or another entity and the emergency procedures for obtaining the equipment if not owned by the entity or contractors. 4.5. Substation Spare Parts and Equipment The entity must identify itsmaintain sufficient spare parts and spare major equipment items in inventory policy, including expected repair times. to make emergency repairs to substations and substation equipment within a reasonable time frame. For purposes of this qualification, spare parts will be classified as i) major equipment items, ii) major equipment parts, iii) minor equipment items and iv) substation materials. 23 Comment [A46]: Owner Comment: This is unnecessary. Comments of the MISO Transmission Owners Major equipment items are large equipment items found in substations such as power transformers, load tap changers, phase angle regulators, voltage regulators, circuit breakers, switches and disconnects, series and shunt capacitor banks, series and shunt reactor banks, static VAR compensators and DC converter equipment. For major equipment items such as power transformers with a replacement lead time that exceeds 30 (??) days, a spare major equipment item must be maintained to protect against catastrophic major equipment failure. For example, if a substation owned by an entity contains a 448 MVA 345-138 kV three-phase autotransformer with a 13.2 kV delta connected tertiary winding and an LTC, the entity would need to maintain a spare transformer with comparable characteristics somewhere in the continental United States. Spare major equipment items should be maintained such that they are available on-site with a 30 (??) day notification. For equipment that consists of independent units for each phase or pole (e.g., single-phase autotransformers, single-phase shunt reactors, single-pole circuit breaker assemblies with independent mechanisms, etc.), it is only necessary to maintain a spare for one phase or pole so long as steps are taken to prevent the catastrophic failure of one unit from damaging an adjacent unit (e.g. sufficient spacing, firewalls, etc.). If an on-site spare exists, it is not necessary to maintain an offsite spare so long as the on-site spare can be transported to any substation location covered by the spare within 30 (??) days. For example, if an entity owns a substation with a, 336 MVA, 230-161 kV bank of three 112 MVA single-phase autotransformers and a fourth 112 MVA single-phase autotransformer is installed on site as an on-site spare, no spare is required, and this on-site spare could also cover a 336 MVA, 230-161 kV bank of three single-phase autotransformers at another substation where an on-site spare was not installed. The only exception to this is if MISO determines that a specific facility is critical enough to BES reliability to justify a dedicated on-site spare that would not be available to cover facilities in other substations (e.g., 2,250 MVA 765-345 kV autotransformer bank with on-site 750 MVA single-phase spare, etc.). It is also allowable to use a single spare to cover power transformers with multiple ratings. For example, a 560 MVA 345-138 kV three-phase auto transformer could serve as a spare for 560 MVA, 500 MVA, 448 MVA and 336, MVA autotransformers as long as the other characteristics (e.g., voltages, tap changers, etc.) were comparable. In addition, for a given type of circuit breaker (where type is defined by nominal voltage, continuous rating and interrupting rating), if an entity uses this type of circuit breaker only in a double-breaker bus configuration, there is no requirement to maintain a spare circuit breaker so long as each circuit breaker and the associated disconnect switches and bus work have the same or higher rating as the corresponding transmission branch being 24 Comments of the MISO Transmission Owners protected. For example, if an entity owns two 765 kV substations that each terminate two Transmission Circuits and one power transformer, and a double-breaker bus configuration is used at both substations for 765 kV (total of twelve 765 kV circuit breakers), then there is no requirement to maintain a spare 765 kV circuit breaker. However, in this example, if this entity were to build a third 765 kV substation with a three-breaker ring bus, a spare circuit breaker would then be required. The reason for the double-breaker exemption is that an extended outage of one circuit breaker in a double-breaker bus configuration would continue to be as reliable, or more reliable, than a ring or straight bus with all circuit breakers in service. Finally, for major equipment designated as spares, no cannibalization of parts should occur without prior approval of MISO. Major equipment parts include parts needed to repair major equipment items. Examples of major equipment parts include, but are not limited to, bushings, pumps, fans, motors, compressors, gaskets, contactors, trip coils, tripping springs, closing springs, temperature gauges, pressure gauges, capacitor units, breaker mechanism parts and assemblies, main breaker contact assemblies, breaker interrupter assembles, LTC mechanism parts, terminal blocks and similar items. If a major equipment part is necessary for operation of a major equipment item, the parts should be maintained in inventory by the entity at a location where they can be available on site within 24 (??) hours. An example of this type of major equipment part would be a power transformer bushing. If a major equipment part is not required for operation of a major equipment item, the part must be available within 10 (??) days, and does not need to be maintained in inventory by the entity unless the lead time to obtain the part is greater than 10 (??) days including back order. An example of this type of part would be a fan motor on a power transformer with multiple cooling fans. For those major equipment parts that must be maintained in inventory and available within 24 (??) hours, minimum inventory levels must be established and documented to minimize the risk that a major equipment part is not available when required. The entity must promptly reorder major equipment parts when inventory levels are depleted below minimum requirements. Comment [A48]: Owner Comment: Would need to increase inventory and increase acceleration of changeout if parts are no longer available. Minor equipment items are smaller equipment items which include, but are not necessarily limited to, protective relays, battery chargers, batteries, auxiliary relays, lockout relays, motor operators, wave traps, surge arresters, instrument transformers, station service transformers, panel meters, control switches, power line carrier equipment, coupling capacitors and similar items. Minor equipment items should be maintained in inventory by the entity at a location where they can be available on site within 24 (??) hours. Minimum inventory levels must be established and documented to minimize the risk a minor equipment item is not available when required. The entity Comment [A49]: Owner Comment: This will result in increased requirements for inventory. 25 Comment [A47]: Owner Comment: Too restrictive. Comments of the MISO Transmission Owners must promptly reorder minor equipment items when inventory levels are depleted below minimum requirements. Substation materials include all of the non-equipment materials necessary in a substation. Examples of substation materials include, but are not limited to, rigid bus conductor, strain bus conductor, grounding wire, control wire, conduit, conduit fittings, connectors, insulators, attachment hardware, fasteners, pipe stands, dead-end structure assemblies, bay assemblies, anchor bolts and similar items. Sufficient substation materials should be maintained in inventory to make emergency repairs as needed unless the material is widely and readily available elsewhere. For example, post insulators are a specialty item that should be maintained in inventory whereas conduit and control wire will likely be readily and widely available elsewhere. For those items maintained in inventory, they should be maintained at a location where they can be available on site within 24 (??) hours. Minimum inventory levels must be established and documented to minimize the risk a substation material item is not available when required. The entity must promptly reorder substation material items when inventory levels are depleted below minimum requirements. For substation materials not maintained in inventory, the entity should have 3 (??) local suppliers identified that can provide the materials on site with 24 (??) hours notification, and arrangements should be made ahead of time for emergency availability on weekends and holidays, otherwise the substation material must be stocked by the entity. The entity must develop a substation spare parts and equipment policy for each State where they own substations. Each substation spare parts and equipment policy must list minimum inventory levels, storage locations and emergency transportation arrangements for major equipment parts, minor equipment items and substation materials. The policy must also list local suppliers, including emergency contacts information, for substation materials not maintained in inventory. For major equipment parts not maintained in inventory, the policy must include information on suppliers and procedures for obtaining parts within the required timeframe. When spare major equipment items must be maintained, the policy should specify locations and transportation arrangements and procedures. Each substation spare parts and equipment policy must be approved by the Applicable Authority. The substation spare parts and equipment policy should be updated quarterly (??) and a copy provided to the Applicable Authority within five (??) business days. With regard to planned maintenance outages, the entity should arrange to have all spare parts, minor equipment items and substation materials on site prior to switching out any portion of the transmission system to avoid a longer than required duration of the 26 Comment [A50]: Owner Comment: Too restrictive. Comment [A51]: Owner Comment: Over regulated and requires more administration and oversight. Comments of the MISO Transmission Owners planned maintenance outage. This provision does not apply to defective parts subsequently discovered during the planned maintenance outage. 4.6. Substation Preventative Maintenance Program Substation preventative maintenance includes inspection and testing of substation facilities on a routine schedule, identifying emergency or non-emergency maintenance and repair requirements and scheduling maintenance and repair work to fix or replace components as necessary to i) prevent a forced transmission outage, ii) prevent damage or loss of life to equipment, iii) prevent unreasonable risk to reliability or service interruptions to consumers and/or iv) correct an unsafe condition. The entity shall develop a substation preventative maintenance plan for each State that must be approved by the Applicable Authority. The substation preventative maintenance plan should be updated annually (??) and a copy provided to the Applicable Authority within 10 (??) business days. The substation preventative maintenance plan should outline i) specific substation inspection cycles and methods, ii) on-line monitoring if used, iii) time-based maintenance schedules when applicable, iv) duty based maintenance criteria when applicable and v) condition-based maintenance criteria when applicable. The substation preventative maintenance plan should include the following information: Schedules and checklists for routine substation inspections and a description of methods used (e.g., visual inspection, test operations, data recording, infrared inspection, etc.). Routine substation inspection frequencies for visual inspection and data recording should be no less frequent than quarterly. General criteria used to trigger further testing, non-emergency maintenance and repair or emergency maintenance and repair should be outlined as well. A description of any on-line monitoring in place for major equipment such as power transformers and circuit breakers and how the data is analyzed and used to make decisions regarding duty-based or condition-based maintenance. For example, on-line I2T monitoring on circuit breakers and the criteria for triggering duty-based circuit breaker maintenance or online oil monitoring on power transformers and the criteria for triggering further testing or power transformer maintenance. A list of major and minor equipment items and/or components of major equipment items subject to time-based testing and maintenance including a maintenance schedule and a list of testing and maintenance tasks 27 Comment [A52]: Owner Comment: Too regulated and extra administration. Comments of the MISO Transmission Owners typically performed. For example, certain protective relays and schemes may be tested every three years. A list of major and minor equipment items and/or components of major equipment items subject to duty-based testing and maintenance including the maintenance triggering criteria and a list of testing and maintenance tasks typically performed. For example, certain circuit breaker operating mechanisms may be maintained after so many circuit breaker operations. A list of major and minor equipment items and/or components of major equipment items subject to condition-based testing and maintenance including methods for analyzing data, the maintenance triggering criteria and a list of testing and maintenance tasks typically performed. For example, a power transformer may be scheduled for a planned outage to process or replace mineral oil as a result of annual oil sample tests or test result trends over time. Coordinated maintenance policies that reduce planned outage frequencies. For example, the planned maintenance outage of a power transformer may be coordinated so that it is scheduled at the same time as the routine testing of the transformer’s differential relay scheme and the detailed inspection of the high-side transformer circuit breaker mechanisms. The preventative maintenance plan should include routine cycles for insulation power factor testing, transformer turns ratio testing and oil sample testing for power transformers. Routine oil sample testing for preventative maintenance should be performed at least once per year, and should include, at a minimum, dielectric strength, dissolved gas analysis, moisture-in-oil, acid, color, interfacial tension and, if the power transformer contains oil pumps, metal-in-oil tests. Testing may be done by entity personnel or qualified contractors. Contractors who perform substation testing must be accredited by NETA. On-line monitoring equipment can be used in place of routine testing for preventative maintenance, but tests should still be performed following a forced outage. List of routine testing performed on circuit breakers including test cycles for preventative maintenance and pass/fail criteria for tests. Testing may be done by entity personnel or qualified contractors. Contractors who perform substation testing must be accredited by NETA. The preventative maintenance plan should include routine cycles for all applicable circuit 28 Comments of the MISO Transmission Owners breaker testing specified in the substation testing policy (e.g., insulation power factor testing, time and travel analysis, contact resistance measurements, etc.). List of testing performed on protective relay schemes including test cycles for preventative maintenance. The substation test policy should include details on testing cycles, procedures and methods used to i) test batteries and battery chargers, ii) test individual protective relays including verification of programmed parameters and settings in digital relays, iii) test lockout relays and auxiliary relays, iv) test instrument transformers, v) test communications equipment and vi) perform functional and operational tests of entire relay schemes including breaker tripping. Protective relay testing should be done by qualified and specialized entity personnel only (i.e., engineers or technicians employed by the entity that specialize in protective relay systems). List of all other routine substation tests performed by the entity as part of a preventative maintenance program including test cycles, test procedures and test methods. The results of the preventive maintenance plan should be used to schedule and make emergency and non-emergency repairs, including like-for-like capital replacements of FERC retirement units to i) avoid forced outages, ii) prolong equipment life, iii) reduce risk to BES reliability and adverse impacts to consumer reliability indices (e.g., SAIFI, SAIDI, etc.) and iv) address unsafe operating conditions. Non-emergency repairs should be scheduled within a reasonable timeframe, but not more than 60 (??) days from the date of the inspection. Emergency repairs should be scheduled within 24 (??) hours or as soon as practical thereafter. 4.7. Substation Modeling and Records An entity must maintain models of all substations that can be used in power flow simulations, dynamic simulations, production cost modeling simulations and short-circuit simulations. These models must include load information for any loads supplied by the substations. Model updates for power flow simulations, dynamic simulations and production cost modeling simulations must be forwarded to MISO using the Model on Demand (MOD) application. Model updates for short-circuit simulations, which include positive and zero sequence models for facilities within the substation, should be submitted to MISO and the entity responsible for performing short-circuit analysis in the area. 29 Comment [A53]: Owner Comment: Scheduled outages on other parts of the system can impact repairing in a timely manner. Comments of the MISO Transmission Owners The entity must maintain as-built records for each substation facility and must update these records when changes are made. The as-built records include, in addition to models, i) asbuilt one-line diagrams of all substation, ii) as-built relay functional diagrams, iii) as-built general arrangement plans, iv) as-built site plans, v) as-built elementary diagrams for protective relays, controls and metering and vi) as-built wiring diagrams for protective relays, controls and metering. The as-built one-line diagram should be sufficient to write and issue switching orders. The entity should retain the original detailed engineering documentation for each substation for the life of the facility. The entity must also maintain sufficient records to produce and maintain an accurate Attachment O including information on plant and all applicable expenses. The entity should maintain i) records on forced outages, ii) switching records, iii) emergency testing and repair records and iv) preventative maintenance records regarding inspections, testing and maintenance work for a period of ten (??) years. Testing results on major equipment should be retained for the life of the equipment. Data recorded by SCADA or recorded manually regarding equipment condition should also be maintained for the life of the equipment. Other SCADA data should be retained for a period of three (??) years. The entity should maintain up-to-date records on all spare parts inventory levels. The entity should retain copies of the current and previously filed policies with the Applicable Authority. 30 Comment [A54]: Owner Comment: This is not appropriate in a document of this type. Comment [A55]: Owner Comment: None of this seems like a qualification requirement. This appears to be more appropriate for a business practice/manual.