STANDARDS. Wholesale Revenue Metering Standard - Hardware PUBLIC. Issue 11.0 MDP_STD_0004
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1 PUBLIC MDP_STD_0004 STANDARDS Wholesale Revenue Metering Standard - Hardware Issue 11.0 This standard provides the principles, accountabilities, and requirements for metering installations used for settlement in the IESOadministered wholesale market. Public
2 Disclaimer The posting of documents on this Web site is done for the convenience of market participants and other interested visitors to the IESO Web site. Please be advised that, while the IESO attempts to have all posted documents conform to the original, changes can result from the original, including changes resulting from the programs used to format the documents for posting on the Web site as well as from the programs used by the viewer to download and read the documents. The IESO makes no representation or warranty, express or implied, that the documents on this Web site are exact reproductions of the original documents listed. In addition, the documents and information posted on this Web site are subject to change. The IESO may revise, withdraw or make final these materials at any time at its sole discretion without further notice. It is solely your responsibility to ensure that you are using up-to-date documents and information. This document may contain a summary of a particular market rule. Where provided, the summary has been used because of the length of the market rule itself. The reader should be aware, however, that where a market rule is applicable, the obligation that needs to be met is as stated in the market rules. To the extent of any discrepancy or inconsistency between the provisions of a particular market rule and the summary, the provision of the market rule shall govern. Document ID MDP_STD_0004 Document Name Wholesale Revenue Metering Standard - Hardware Issue Issue 11.0 Reason for Issue Updated for Baseline 34.0 Effective Date September 9, 2015
3 Document Change History Document Change History Issue Reason for Issue Date 1.0 Final version for public release. 24 December Issue Released for Baseline 10.0 September 10, Issue Released for Baseline 11.1 June 2, Issue Released for Baseline 12.1 December 8, Issue Released for Baseline 14.0 September 14, Issue Released for Baseline 15.0 March 8, Issue Released for Baseline 16.1 December 6, Issue Released for Baseline 19.0 March 5, Issue Released for Baseline 21.1 June 3, Issue released for Baseline 28.0 September 12, Issue released for Baseline 34.0 September 9, 2015 Related Documents Document ID IMP_PRO_0058 MDP_GDE_0002 MDP_PRO_0011 MDP_PRO_0012 MDP_PRO_0013 MDP_PRO_0032 Document Title Market Manual 3: Metering, Part 3.9: Conformance Monitoring Guide to Documents Published in Baseline Market Manual 3: Metering, Part 3.5: Site Specific Loss Adjustments Market Manual 3: Metering, Part 3.6: Conceptual Drawing Review Market Manual 3: Metering, Part 3.2: Meter Point Registration and Maintenance Market Manual 5: Settlements, Part 5.2: Metering Data Processing Issue 11.0 September 9, 2015 Public
4 Table of Contents Table of Contents Table of Contents... i List of Figures... vii List of Tables... viii Table of Changes... ix 1. Introduction General Requirements Minimum Requirement Exceeding Minimum Requirement Who Should Use This Document Applicability Conventions Scope Metering Installations Applicability to Equipment Applicability to Installations New and Existing Metering Installations Wholesale Meter Points Defined Point of Sale Connected Market Participants Embedded Market Participants Meter Point New Installations Location When Meter Point Not Located at Defined Meter Point Meter Point Existing Installations When Meter Point Not Installed at Defined Meter Point Station Service Supply Included Station Service Supply Not Included Conformance with Blondel s Theorem Blondel s Theorem General Requirements - Blondel s Theorem Blondel's Theorem New Installations Elements Required Non-Blondel Compliant Metering Existing Installations IESO Approval... 5 Issue 11.0 September 9, 2015 Public i
5 Table of Contents MDP_STD_ Compliance with Measurement Canada Rulings Considerations for Installations that do not Conform to Blondel s Theorem Metering that does not Comply with Blondel s Theorem Registration in the IESO-Administered Market Non-Blondel Metering Requirements Maximum Error Exceeding 3.0% Application of Fixed Correction Factors Meters Accuracy Requirements for Main Meters New Meters Requirements Meters Sealed by Meter Service Organization Accuracy Requirements for Alternate Meters New Meters Requirements Meters Sealed by Meter Service Organization Accuracy Requirement for Meters Existing Meters Conditions of Use Replacement Functional Requirements New Meters Use of Instrument Transformers Requirements for Main and Alternate Meters Data Channel Assignments for Main and Alternate Meters Optional Functional Requirements Discretion Meter Data Obtained Directly From Meter Technological Advance Future Considerations Functional Requirements Existing Meters Before Market Rules Come Into Effect Requirements for Approval Internal Meter Identification Number New Meters (Device I.D.) Identification Number Characteristics of Identification Number Assigning First Character First Character Specification Remaining Characters Specification Internal Meter Identification Number Existing Meters Identification Number Characteristics of Identification Number Instrument Transformers General Requirements Inclusion of Instrument Transformer Items Requiring IESO Approval Security ii Public Issue 11.0 September 9, 2015
6 Table of Contents Security Requirements Seals Seal Requirements Restoration After Failure Emergency Instrument Transformer (IT) Restoration Plan Requirements for Emergency Restoration Plan Temporary Replacement Instrument Transformers Primary Connection Point Loads Location of Primary Terminals Alternative Location of Primary Terminals Requirements for Primary Terminals Connection to Power System Connection to Common Solid Bus Constant Correction Factor Primary Connection Point Generators Location of Voltage Transformer Primary Terminals Alternative Location of Voltage Transformer Primary Terminals Requirements for Current Transformer Primary Terminals Leakage Current Constant Correction Factors Primary Cable Minimizing Error New Installations Existing Installations Power System Switching New Installations Location of Primary Connections VT Primary Switching Devices and Rack-Out Mechanisms Emergency Bypass Switching Device Pole Mounted Metering Equipment Power System Switching Existing Installations Information Required by IESO Timing of Notification Method of Notification Interval Data and Adjustment Factors Notification of Emergency Metering Operation Metering Installations Instrument Transformer Ratios New Instrument Transformers Selection of Current Transformer Ratios Selection of Voltage Transformer Ratios Accuracy Requirements New Instrument Transformers Current Transformers Voltage Transformers Electronic Current Transformers Electronic Voltage Transformers Monitoring Requirements New Electronic Instrument Transformers Safety Requirements New Instrument Transformers Issue 11.0 September 9, 2015 Public iii
7 Table of Contents MDP_STD_ Requirements Instrument Transformers Existing Installations Continued Use of Existing Instrument Transformers Approval Dispensation After Market Rules Come Into Effect Accuracy Proof of Accuracy Compliance Accuracy Requirements Other Identical Units Security Rated Burden Replacement Upgraded or Refurbished Metering Installation or Metered Facility Secondary Cabling for Instrument Transformers Applicability New Current Transformers Size of Secondary Cabling New Voltage Transformers Minimizing Error Correction Factor Error Limit Additional Requirements New Instrument Transformers Codes and Conditions Secondary Cabling Existing Installations Installations Prior to Market Rules Requirements Constant Correction Factor Replacement Upgraded or Refurbished Metering Installation or Metered Facility Instrument Transformer Burdens All Installations General IESO Approval Review Requirements Alter Secondary Connections or Burden Verification of Connections All Installations Tracing and Verification Circuits Tracing and Verification Connection of Terminals Verification of Burden All Installations Measurement or Calculation On-site Testing Not to Exceed Nameplate Ratings Burden Calculation All Current Transformers General Requirements iv Public Issue 11.0 September 9, 2015
8 Table of Contents Establishing the Burden Rated Burden Limit Burden Calculations All Voltage Transformers General Requirements Allowance for Worst-Case Unbalance Rated Burden Limit Parallel Connected Current Transformer Secondaries New Installations Prohibition in New Installation Existing Installations IESO Approval Requirements for Approval Elimination Metering Installation Enclosure New Installations Meter Enclosure Meter Enclosure Requirements Maintenance and On-site Audit Test Blocks Existing Installations IESO Approval Requirements for Approval Metering Installations Configurations of New Metering Installations Definition Unavailability of Main Meter Configurations of Existing Metering Installations Definition Unavailability of Main Meter Metering Installations for a Small or Minor Embedded Generation Facility Registration Instrument Transformers Hardware Support for the Validation Process Validation Requirements New Metering Installations Compliance with IESO Procedure Unadjusted Active and Reactive Interval Data Communications Standard for Metering Communications Hardware Compliance with IESO Standard Compatibility with IESO Communication Interface Issue 11.0 September 9, 2015 Public v
9 Table of Contents MDP_STD_ Data Availability Main/Alternate Communications Communication Restriction Site-Specific Loss Adjustments Requirement for Site-Specific Loss Adjustment Data Compliance with IESO Procedure Calculation of Losses Glossary of Terms Appendix A: Forms... A 1 Appendix B: Metering Installation Figures... B 1 Appendix C: Blondel Conformance... C 1 Appendix D: VT Primary Switching... D 1 References... 1 vi Public Issue 11.0 September 9, 2015
10 List of Figures List of Figures Figure B-1: Dual Main/Alternate Metering Installation... B 2 Figure B-2: Main/Alternate Metering Installation... B 3 Figure B-3: Main/Alternate Metering Installation - Dual Secondary Windings... B 4 Figure B-4: Standalone Main Metering Installation... B 5 Figure B-5: Standalone Non-Conforming Metering Installation... B 6 Figure C-1: Illustrations of Blondel Conformance... C 1 Figure D-1: VT Primary Switching Devices and Rack-out Mechanisms... D 1 Issue 11.0 September 9, 2015 Public vii
11 List of Tables MDP_STD_0004 List of Tables Table 5.1: Data Channels for Main Meters Table 5.2: Data Channels for Alternate Meters viii Public Issue 11.0 September 9, 2015
12 Table of Changes Table of Changes Reference (Section and Paragraph) Section 13 Section Section Appendix A Description of Change Updated standards to reflect TCP/IP communications. Removed references to obsolete forms: 1. IMO_FORM_1509 Witness of Buried Section Instrument Transformer Secondary Cables 2. IMO_FORM_1311 Connection Facility Station Service Not Metered by an RWM Issue 11.0 September 9, 2015 Public ix
13 1. Introduction 1. Introduction 1.1 General Requirements Minimum Requirement This standard sets forth the minimum requirements for wholesale metering installations Exceeding Minimum Requirement A metering installation of a higher level of accuracy or functionality than that required by this standard may be installed. 1.2 Who Should Use This Document Applicability This standard shall be observed by metered market participants and by metering service providers in the IESO-administered market. 1.3 Conventions The standard conventions followed for this document are as follows: The word 'shall' denotes a mandatory requirement; Terms and acronyms used in this document that are italicized have the meanings ascribed thereto in Chapter 11 of the market rules; Double quotation marks are used to indicate titles of legislation, publications, forms and other documents. End of Section Issue 11.0 September 9, 2015 Public 1
14 2. Scope MDP_STD_ Scope 2.1 Metering Installations Applicability to Equipment This standard applies to the following metering equipment: a. meters; b. instrument transformers, cabling, enclosures, test blocks, fuses, conduit and associated metering installation accessories; c. on-site storage of metering data; and d. on-site communications equipment and communication protocols. The equipment is used for the settlement of IESO-administered transactions occurring in Ontario s wholesale electricity markets Applicability to Installations This standard applies to metering installations in the IESO-administered market for: a. connection between utility control areas; b. connection to the IESO-controlled grid system; c. points of connection between local distribution companies; d. connection of registered market participants embedded within the local distribution companies; e. designated interties with other grid systems; and f. any other locations as required by the IESO for settlement purposes New and Existing Metering Installations This standard applies to new and existing metering installations in the IESO-administered market for: a. new installations constructed after the Market Rules come into effect; and b. existing installations constructed before the Market Rules came into effect where the Alternative Metering Installation Standard is being applied. End of Section 2 Public Issue 11.0 September 9, 2015
15 3. Wholesale Meter Points 3. Wholesale Meter Points 3.1 Defined Point of Sale The defined point of sale shall be the point on the boundary of the IESO-controlled grid at which settlement transactions are deemed to take place Connected Market Participants The defined meter point for connected market participants shall be the defined point of sale and shall be one of the following: a. the point at which a neighbouring control area is connected to the IESO-controlled grid; or b. the point at which a designated 1 radial line is connected to the IESO-controlled grid; or c. for generators, the point at which a generator transformer is connected to the transmission system; or d. for loads, the point at which a load transformer is connected to the transmission system; or e. for distributors, the point at which the distributor is connected to the IESO-controlled grid or connected to another distributor; or f. any other connection point deemed to be necessary for settlement by the IESO Embedded Market Participants The defined meter point for embedded market participants shall be one of the following: a. the point at which a generation facility or load facility is connected to the distribution system 2 ; or b. any other connection point deemed to be necessary for settlement by the IESO. Each embedded participant's meter shall be associated with one or more defined points of sale. The metering data from the embedded participant's meter shall be adjusted for the electrical losses between it and the associated defined point(s) of sale. 3.2 Meter Point New Installations Location The actual meter point shall be located as close as practicable to the defined meter point. 1 Designated by the IESO as not being part of the IESO-controlled grid. 2 The defined meter point shall be at the primary distribution voltage. Issue 11.0 September 9, 2015 Public 3
16 3. Wholesale Meter Points MDP_STD_ When Meter Point Not Located at Defined Meter Point Where the actual meter point is not located at the defined meter point, the following conditions shall apply: a. the installation shall be subject to IESO approval. b. metering data recorded in the metering database shall be adjusted to allow for physical losses between the meter point and the defined meter point. c. consumption of station service at a transformation or transmission station shall be separately accounted for if it is not accounted for in the data available from the main metering. d. consumption of station service at a generating station shall be separately accounted for if supplied from the transmission system or the distribution system, and is not accounted for in the data available from the main metering. 3.3 Meter Point Existing Installations When Meter Point Not Installed at Defined Meter Point If the actual meter point is not at the defined meter point, the metering data recorded in the metering database shall be adjusted to allow for physical losses between the actual meter point and the defined meter point Station Service Supply Included At transformer stations, where the station service supply is included in the revenue metering data collected by the IESO, there will be no further adjustment to the metering data for the station service by the IESO Station Service Supply Not Included At existing transformer stations where the station service supply is not included in the revenue metering data collected by the IESO, one of the following conditions shall apply: a. metering data shall be adjusted by a fixed correction factor by completing and submitting a Connection Facility Station Service-Not Metered by a RWM in Online IESO; or b. separate revenue metering shall be installed to meter the station service supply. End of Section 4 Public Issue 11.0 September 9, 2015
17 4. Conformance with Blondel s Theorem 4. Conformance with Blondel s Theorem 4.1 Blondel s Theorem General Requirements - Blondel s Theorem Multiconductor or polyphase power measurement is based on Blondel s Theorem as follows. "The total power delivered to a load system by means of n conductors is given by the algebraic sum of the indications of n wattmeters so inserted that each of the n wires contains one wattmeter current-coil, its potential coil being connected between that wire and some point of the system in common with all the other potential coils; if that common junction of all the potential leads is on one of the n wires, the total power is obtainable from the indications of n-1 wattmeter elements." 4.2 Blondel's Theorem New Installations Elements Required New metering installations in the IESO-administered market shall conform to Blondel s Theorem. The table below lists the number of elements required to conform to Blondel s Theorem: Type of Power Source Elements Required Three wire delta 2 Ungrounded wye 2 Solidly grounded wye 3 Wye grounded through impedance 3 Distribution circuit (three phases and a neutral) 3 Three-phase transmission circuit with grounded skywire or counterpoise 3 See Appendix C for illustrations of Blondel conformance. 4.3 Non-Blondel Compliant Metering Existing Installations IESO Approval Existing installations that do not conform to Blondel s Theorem are subject to IESO approval. Issue 11.0 September 9, 2015 Public 5
18 4. Conformance with Blondel s Theorem MDP_STD_ Compliance with Measurement Canada Rulings Existing installations shall comply with any future Measurement Canada rulings on two and one-half element meters (or two-element meters using three delta connected current transformers and two voltage transformers connected phase to ground). As per Measurement Canada Bulletin E-24E (rev.1) dated , 5.1 Effective April 1, 2003, all new and all reconstruction of existing 3- phase 4- wire wye configured metering installations shall use metering that is compliant to Blondel s Theorem such as 3-element metering. An example of a reconstructed metering installation may include service upgrades and, or instrument transformer replacement. Reconstruction of existing metering installation, sites that do not have sufficient physical space to accommodate the additional voltage transformer will not be required to meet 5.1 above Considerations for Installations that do not Conform to Blondel s Theorem Subject to specific site approval by the IESO, as detailed in section 4.4, the following Non-Blondel- Compliant installations will be considered for registration: a. two and one-half element metering installations using three current transformers, two voltage transformers connected phase to ground and a two and one-half element meter; b. two and one-half element metering installations using three delta connected current transformers, two voltage transformers connected phase to ground and a two-element meter; c. delta metering of transmission or distribution circuits using two current transformers, three voltage transformers connected phase to ground with 69V secondaries and a twoelement meter; and d. two-element metering installation located at the transformer station where the power system neutral/ground is available but not used using two current transformers and two voltage transformers connected phase to phase and a two-element meter. e. two-element metering of a generation facility where a grounded generation facility is connected to a grounded winding of the step up power transformer. The metering installation is located between the generation facility and the step up power transformer. All load connections between the generation facility and the metering installation are delta connected using two current transformers and two voltage transformers connected phase to phase and a two-element meter. 4.4 Metering that does not Comply with Blondel s Theorem 6 Public Issue 11.0 September 9, 2015
19 4. Conformance with Blondel s Theorem Registration in the IESO-Administered Market An existing metering installation that does not conform to Blondel s Theorem may be registered in the IESO-administered market, subject to Non-Blondel metering requirements by the IESO. At seal expiry, a metering installation described in 4.3.3b must be modified to meet the specification of section 4.3.3a. In addition, the new two and one-half element meter shall be a main meter that: 1. is on the Conforming Meter List; 2. has the capability to calculate the missing voltage; and 3. records the volt square hour (missing voltage) in channel 6 for each interval Non-Blondel Metering Requirements The requirements for registration are: a. the magnitude of maximum error shall be determined and submitted to the IESO for approval; b. where the maximum error can be shown to be less than 0.2% for both active and reactive power, the installation shall be approved the IESO without a correction factor; and c. where the maximum error exceeds 0.2%, the IESO may grant approval to continue to use the existing metering and apply a fixed correction factor to the metering data Maximum Error Exceeding 3.0% Where the maximum error exceeds 3.0%, the metering installation shall be replaced with a metering installation that is Blondel-Compliant Application of Fixed Correction Factors Fixed correction factors shall be applied in the following way: a. energy flows in the sell direction shall not be increased; and b. energy flows in the buy direction shall not be decreased. End of Section Issue 11.0 September 9, 2015 Public 7
20 5. Meters MDP_STD_ Meters 5.1 Accuracy Requirements for Main Meters New Meters Requirements Accuracy requirements shall apply to all new main meters. The requirements for main meters are: a. meters shall be approved by Measurement Canada prior to deployment in the IESOadministered market; b. meters shall meet or exceed the 0.2 accuracy class of ANSI standard C12.20; c. the pulse resolution of the energy transferred shall be within ± 0.05% (at full load kw) of the energy measured by the meter; d. Measurement Canada test points shall be used; e. tolerance for all tests shall be 0.2% at unity power factor and 0.3% at 0.5 power factor; and f. meters shall be listed on the Conforming Meter List Meters Sealed by Meter Service Organization The population of meters sealed by a meter service organization for application in the IESOadministered market shall be randomly distributed to metered market participants; so as to disperse the error associated with the accuracy of the meter calibration. 5.2 Accuracy Requirements for Alternate Meters New Meters Requirements Accuracy requirements shall apply to all new alternate meters. The requirements for alternate meters are: a. meters shall be approved by Measurement Canada prior to deployment in the IESOadministered market; b. meters shall meet or exceed the 0.5 accuracy class of ANSI standard C12.20; and c. the pulse resolution of the energy transferred shall be within ± 0.05% (at full load kw) of the energy measured by the meter. d. Measurement Canada test points shall be used; e. tolerance for all tests shall be 0.5% at unity power factor and 0.6% at 0.5 power factor; and f. the meters shall be listed on the Conforming Meter List. 8 Public Issue 11.0 September 9, 2015
21 5. Meters Meters Sealed by Meter Service Organization The population of meters sealed by a meter service organization for application in the IESOadministered market shall be randomly distributed to metered market participants; so as to disperse the error associated with the accuracy of the meter calibration. 5.3 Accuracy Requirement for Meters Existing Meters Conditions of Use A meter installed before the Market Rules came into effect, and that does not comply with the requirement of section b for main meters, and section b for alternate meters, will be permitted by the IESO to remain in service subject to the following conditions: a. Measurement Canada has granted approval of type for the specific meter; b. an accredited meter service organization or Measurement Canada has verified and sealed the meter; and c. the seal has not expired Replacement All meters shall be replaced at the seal expiration date: a. with meters conforming to section 5.1 for main meters and 5.2 for alternate meters; or b. with meters conforming to section 5.1 for main meters. 5.4 Functional Requirements New Meters Use of Instrument Transformers Instrument transformers supplying the main meter shall be used solely for the purposes of revenue metering and not for any other purposes, including, but not limited to, the attachment of other devices Requirements for Main and Alternate Meters Meters installed as the main or alternate meter, shall meet the minimum requirements listed below and accepted on the Conforming Meter List: Item Main Meter Alternate Meter Quadrants 4 Quadrant: - Wh/Varh DEL - Wh/Varh REC 4 Quadrant: - Wh/Varh DEL - Wh/Varh REC Issue 11.0 September 9, 2015 Public 9
22 5. Meters MDP_STD_0004 Item Main Meter Alternate Meter Interval Data Wh, Varh for settlement of market transactions. Four channels are required for recording Wh/Varh DEL and Wh/Varh REC. V 2 h, I 2 h per phase for loss adjustment and data validation 3. Wh, Varh for settlement of market transactions. Four channels are required for recording Wh/Varh DEL and Wh/Varh REC. Time Synchronization Data Storage Data Collection Protocol Encoded Registers Password Protection Built-in Battery Backup Self Power 4 The internal clock shall be capable of being reset set by the data collection software during normal collection operations. 35 days of 5-minute time-stamped interval data. 100 event log readable by MV90. Compatible with MV90. Date- and time-stamped readings of the cumulative energy register for each active or reactive energy measured and to be read remotely. Two or more levels. One for each: Meter data collection agency: full access to set time functions; readonly access to interval data, event log and meteorological quantities. In the event of power outage or depressed voltage, the meter maintains the interval data, event log and clock time for 35 days. Clock time shall drift less than 1 minute per month. The internal clock shall be capable of being reset set by the data collection software during normal collection operations. 10 days of 5-minute time-stamped interval data. Flags readable by MV90. Compatible with MV90. Date- and time-stamped readings of the cumulative energy register for each active or reactive energy measured and to be read remotely. Two or more levels. One for each: Meter data collection agency: full access to set time functions; read-only access to interval data, event log and meteorological quantities. In the event of power outage or depressed voltage, the meter maintains the interval data, event log and clock time for 10 days. Clock time shall drift less than 1 minute per month. Not the same source as the main meter. Power Switching From an external source. Connected to phase power. 3 The time integral of voltage or current squared over a metering interval recorded as if it were another energy measurement in a normal data channel, the quantity may be displayed as a demand (V 2 or I 2 ) by MV90. 4 In cases where the facility is disconnected from the source and kept off potential for an extended period of time, the auxiliary power configuration must be such that both the Main and Alternate meters are powered at all times. Use of an auto transfer scheme for auxiliary power to the Alternate Meter is subject to IESO approval. 10 Public Issue 11.0 September 9, 2015
23 5. Meters Item Main Meter Alternate Meter Self Monitoring Condition monitoring to record, in the event log or channel status, critical errors such as failure of the measuring system or pulse overrun. The IESO must be able to upload and detect the critical error. Instrument Transformer Monitoring Optical Interface Modem Condition monitoring capable of detecting loss of voltage and/or current and recording of the event, date and time in the event log. The IESO must be able to upload and detect faulty equipment condition. To enable local downloading of metered data. Either internal or external: 9.6 Kb/s minimum. To enable local downloading of metered data. Either internal or external: 2.4 Kb/s minimum Data Channel Assignments for Main and Alternate Meters Main meters will provide the following data channels. Data from the Main Meter Interval Data 1. kwh delivered 1 2. kvarh delivered 2 3. kwh received 3 4. kvarh received 4 5. V 2 H per phase 5, 6, 7 6. I 2 h per phase 8, 9, 10 Table 5.1: Data Channels for Main Meters The channels numbers shown shall be the assignment for the wholesale market. Channel Meters installed in delta power systems may have two current transformers and two voltage transformers instead of three as shown above. In this case, channel 5 and channel 6 is V 2 h per phase and channel 7 and channel 8 is I 2 h per phase. Since MV90 has the capability to record up to 16 channels, channels 11 to 16 for a three element meter or channels 9 to 16 for a two element meter shall be set to unconnected (code 42) and flagged to omitted on upload. Issue 11.0 September 9, 2015 Public 11
24 5. Meters MDP_STD_0004 Data from the Alternate Meter Alternate meters will provide the following data channels: Interval Data Channel 1. kwh delivered 1 2. kvarh delivered 2 3. kwh received 3 4. kvarh received 4 Table 5.2: Data Channels for Alternate Meters Since MV90 has the capability to record up to 16 channels, channel 5 to 16 must be set to unconnected (code 42) and flagged to omit on upload. 5.5 Optional Functional Requirements Discretion Optional metering functions are discretionary Meter Data Obtained Directly From Meter Meter data is that obtained directly from the main or alternate meter. Any method of accessing the main or alternate meters shall not affect the accuracy of the meter data. 5.6 Technological Advance Future Considerations Additional specifications may be developed and implemented in the wholesale market by the IESO as required. 5.7 Functional Requirements Existing Meters Before Market Rules Come Into Effect If the metering installation was installed in facilities constructed before the Market Rules came into effect, IESO approval shall be required for continued use of the meter in the IESO-administered markets. 12 Public Issue 11.0 September 9, 2015
25 5. Meters Requirements for Approval The requirements for approval are: a. Measurement Canada shall have previously granted approval of type for that specific meter; b. a meter service organization or Measurement Canada shall have verified and sealed the meter; c. the seal shall not have expired; d. for all dispatched generators and loads, the meter shall match the five-minute interval; e. for non-dispatched loads and self-scheduled generators the meter shall collate to five or 15 minute intervals; f. the meter shall be compatible to the IESO s software system; and g. the meter shall be suitable for time synchronization to EST by the IESO. 5.8 Internal Meter Identification Number New Meters (Device I.D.) Identification Number Each meter shall have an internal identification number Characteristics of Identification Number The internal identification number shall be unique within the IESO-administered market and shall consist of no less than seven alphanumeric characters Assigning First Character The IESO shall assign the first character of the identification number to each manufacturer of meters approved for use in the IESO-administered market First Character Specification The first character shall be alphanumeric: 1 to 9 or A to Z Remaining Characters Specification The remaining six or more characters shall be unique to the manufacturer. Issue 11.0 September 9, 2015 Public 13
26 5. Meters MDP_STD_ Internal Meter Identification Number Existing Meters Identification Number Each meter shall have an internal identification number Characteristics of Identification Number The internal identification number shall be unique within the IESO-administered market. End of Section 14 Public Issue 11.0 September 9, 2015
27 6. Instrument Transformers 6. Instrument Transformers 6.1 General Requirements Inclusion of Instrument Transformer Metering installations shall include instrument transformers Items Requiring IESO Approval As part of the process of meter registration, the following information shall be provided to the IESO: a. verification that instrument transformers conform to the required accuracy class; b. verification that instrument transformers operate within their rated burden limits; c. verification that instrument transformers operate within their operating limits; and d. error correction factors for instrument transformers. 6.2 Security Security Requirements Instrument transformers connections to cabling shall be secure and tamper proof Seals Sufficient seals shall be placed to ensure detection of unauthorized access to the instrument transformer secondary connections Seal Requirements The requirements for sealing are: a. seals shall have unique serial numbers; b. seals shall be traceable to the metering service provider that installed the seals; and c. the metering service provider shall maintain a record of the seal serial numbers and log subsequent changes including reasons for the seal change. 6.3 Restoration After Failure Emergency Instrument Transformer (IT) Restoration Plan An Emergency Instrument Transformer Restoration Plan (EITRP) shall be in effect and ready to execute in case of instrument transformer failure, except in the case of a small or minor embedded Issue 11.0 September 9, 2015 Public 15
28 6. Instrument Transformers MDP_STD_0004 generation facility that meets the requirements of the market rules, Chapter 6, section such facilities that meet these requirements do not require an EITRP Requirements for Emergency Restoration Plan The emergency IT restoration plan shall be subject to IESO approval and shall: a. include notification to the IESO within one business day of discovering such a failure; b. provide a temporary source for Main/Alternate metering within twelve days of discovering the failure; c. identify and apply the correction factors required to bring the proposed temporary metering data to IESO-approved accuracy limits; d. provide for temporary replacement instrument transformers within twelve days if alternate metering is unavailable; and e. provide for the permanent replacement or repair of failed instrument transformers within twelve weeks of discovery of such failure Temporary Replacement Instrument Transformers Temporary replacement instrument transformers shall be pre-approved for use by the IESO. 6.4 Primary Connection Point Loads Location of Primary Terminals The primary terminals of each current transformer shall be located as close as practicable to the defined meter point Alternative Location of Primary Terminals Where the primary terminals of each current transformer are not located at the defined meter point, the installation shall be subject to IESO approval Requirements for Primary Terminals The primary terminals of each voltage transformer shall be: a. at the same potential as the current transformer; and b. as close as practicable to the primary terminals of the current transformer of the same phase Connection to Power System With respect to any physical separation of the points at which the voltage transformer and the current transformer of each phase are connected to the power system, the installation shall: a. minimize the voltage drop between the voltage transformer and the current transformer; and b. minimize the leakage of current between the voltage transformer and the current transformer. 16 Public Issue 11.0 September 9, 2015
29 6. Instrument Transformers Connection to Common Solid Bus Where a metered market participant has two supply circuits connected to a common solid bus (i.e. no tie-breaker between the two supply circuits), the metering installations for the two supply circuits may utilize a single set of VTs which are connected to the common solid bus Constant Correction Factor Where the maximum error introduced by any physical separation of the primaries of the voltage transformer and current transformer exceeds 0.02%, for either active or reactive power flow, a constant correction factor shall be provided by the metering service provider. 6.5 Primary Connection Point Generators Location of Voltage Transformer Primary Terminals The primary terminals of each voltage transformer shall be located as close as practicable to the defined meter point Alternative Location of Voltage Transformer Primary Terminals Where the primary terminals of each voltage transformer are not located at the defined meter point, the installation shall be subject to IESO approval Requirements for Current Transformer Primary Terminals The primary terminals of each current transformer shall be either: a. at the same potential as the primary terminals of the corresponding voltage transformer; or b. connected to the corresponding phase at the grounded side of the generation facility Leakage Current Where the current transformers are located on the grounded side of the generation facility, leakage current between the location of the current transformer and the location of the corresponding voltage transformer shall be minimized Constant Correction Factors Where the error introduced by leakage current between the location of the current transformer and the location of the corresponding voltage transformer exceeds 0.02%, for either active or reactive power flow, constant correction factors shall be supplied to the IESO. Issue 11.0 September 9, 2015 Public 17
30 6. Instrument Transformers MDP_STD_ Primary Cable Minimizing Error Error introduced by the primary cable and terminations connecting the high-voltage terminals of an instrument transformer to the IESO-controlled grid shall be minimized New Installations For new installations, the error introduced by the primary cable and connections shall not exceed 0.02% Existing Installations For existing installations, where the error introduced by the primary cable and connections exceeds 0.02%, a constant correction factor shall be supplied to the IESO. 6.7 Power System Switching New Installations Location of Primary Connections Primary connections of the instrument transformer shall be located such that operation of power system equipment does not degrade the following elements: a. accuracy of measurement; b. data required for validation or settlement; c. loss adjustment factors; and d. monitoring of metering equipment condition VT Primary Switching Devices and Rack-Out Mechanisms Notwithstanding Section 6.7.1, the presence of switching devices on the primary connections of the VT's is permitted only under the following conditions: a. the auxiliary power supply to the main meter shall be external and supplied from a source that is unaffected by any form of power switching; b. the auxiliary power supplied to the alternate meter shall be taken from the VT secondary; c. sufficient seals shall be placed to ensure detection of unauthorized access to the VT switching device; d. the IESO shall be notified of the operation of the switching device and of consequences to the metering as per Section Power Switching Operations Procedure of Market Manual 3: Metering, Part Conformance Monitoring ; and e. only the switching conditions as outlined in Appendix D are permitted. 18 Public Issue 11.0 September 9, 2015
31 6. Instrument Transformers Emergency Bypass Switching Device Pole Mounted Metering Equipment Notwithstanding Section 6.7.1, the presence of an emergency bypass switching device associated with a pole mounted metering installation is permitted only under the following conditions: a. the emergency bypass switching device forms part of the EITRP for the metering installation; and b. the metering service provider is required to define a Low Limit on Interval (interval kw demand) validation check for the metering installation; and c. the IESO shall be notified of the operation of the emergency bypass switching device and of consequences to the metering as per Section Power Switching Operations Procedure of Market Manual 3: Metering, Part 3.9 Conformance Monitoring. 6.8 Power System Switching Existing Installations Information Required by IESO If the operation of an existing power system switching device affects the normal operation of the metering installation, or bypasses the metering, or electrically separates the instrument transformers, the following information shall be submitted to the IESO: a. identification of all switching devices that may cause metering data to be incorrect; b. for each switching device, identification of an alternate source of data; and c. a correction factor Timing of Notification The IESO shall be notified, within 48 hours, of the date, time, and duration of the planned switching operation Method of Notification Notification to the IESO is accomplished by completing and submitting Form 1464-Notification of Power Switching Interval Data and Adjustment Factors At the time of meter registration, interval data and adjustment factors for abnormal power system switching with which to edit the metering data shall be supplied to the IESO Notification of Emergency Metering Operation Within 24 hours of any emergency power system operation affecting normal metering operation, the IESO shall be notified of the event and of consequences to the metering by completing and submitting Form 1464-Notification of Power Switching. Issue 11.0 September 9, 2015 Public 19
32 6. Instrument Transformers MDP_STD_ Metering Installations Where power system switching affects the metering more than twice per annum, additional metering installations shall be installed to cover this contingency. 6.9 Instrument Transformer Ratios New Instrument Transformers Selection of Current Transformer Ratios Current transformer ratios shall be selected according to the following factors: a. the maximum sustained primary current in a current transformer shall not exceed the primary tap multiplied by the continuous current Rating Factor (RF) of the current transformer; and b. the minimum sustained primary current during normal operation shall not be less than 10% of the primary tap, for ANSI 0.3 accuracy class; or c. the minimum sustained primary current during normal operation shall not be less than 5% of the primary tap, for the defined standard of ANSI 0.15 accuracy class; and d. the minimum sustained current during normal operation shall not be less than 1% of primary tap, for the defined standard of ANSI 0.15S accuracy class Selection of Voltage Transformer Ratios Voltage transformer ratios shall be selected such that operation at the minimum or maximum sustained secondary voltage shall not affect meter accuracy or meter function Accuracy Requirements New Instrument Transformers Current Transformers Current transformers shall conform to the IEEE ANSI C for 0.3 metering accuracy class or the Canadian Standards Association CAN/CSA-C :07 for 0.3 metering accuracy class. High accuracy current transformers shall conform to the IEEE ANSI C for 0.15 and 0.15S metering accuracy class or the Canadian Standards Association CAN/CSA-C :07 for 0.15 and 0.15S metering accuracy class Voltage Transformers Voltage transformers shall conform to the IEEE ANSI C for 0.3 metering accuracy class or the respective Canadian Standards Association CAN/CSA-C :07, CAN/CSA-C :07, or CAN/CSA-C :07 for 0.3 metering accuracy class. 20 Public Issue 11.0 September 9, 2015
33 6. Instrument Transformers Electronic Current Transformers Electronic current transformers shall conform to the respective IEEE ANSI C and IEEE ANSI C for 0.3, 0.15 and 0.15S metering accuracy class or the respective Canadian Standards Association CAN/CSA-C :07 and CAN/CSA-C :07 for 0.3, 0.15 and 0.15S metering accuracy class. Electronic current transformers shall have 5 Amp rated secondary output for the IESO-administered market Electronic Voltage Transformers Electronic voltage transformers shall conform to the respective IEEE ANSI C and IEEE ANSI C for 0.3 and 0.15 metering accuracy class or the respective Canadian Standards Association CAN/CSA-C :07 and CAN/CSA-C :07 for 0.3 and 0.15 metering accuracy class Monitoring Requirements New Electronic Instrument Transformers Where the installation has an electronic instrument transformer, it shall have a mechanism for realtime monitoring of alarm statuses and events associated with optical sensors, transmitting systems and secondary converters. Within 24 hours of any metering alarm affecting the normal metering operation, the IESO shall be notified of the alarm event and the consequences to the revenue metering. An alarm event log shall be in place and maintained for IESO audit purposes. The installation shall be subject to IESO approval Safety Requirements New Instrument Transformers Requirements The installation shall conform to the requirements of: a. Measurement Canada Standard Drawings; b. the Ontario Electrical Safety Code; and c. the ANSI/IEEE C IEEE Guide for Grounding of Instrument Transformer Secondary Circuits and Cases Instrument Transformers Existing Installations Continued Use of Existing Instrument Transformers Approval of the IESO shall be required for continued use of existing instrument transformers in the wholesale market. Issue 11.0 September 9, 2015 Public 21
34 6. Instrument Transformers MDP_STD_ Approval Instrument transformers shall be approved for use by Measurement Canada, or shall have special dispensation/temporary permission from Measurement Canada Dispensation After Market Rules Come Into Effect Should further dispensation/temporary permission be required after the Market Rules come into effect, the metered market participant shall seek dispensation/temporary permission from Measurement Canada, and maintain records of the equipment granted dispensation Accuracy Instrument transformers shall meet the requirements of ANSI 0.3 accuracy, or correction factors shall be applied Proof of Accuracy Compliance Proof of compliance with 0.3 ANSI accuracy class shall be provided as follows: a. in the form of factory test cards complete with serial numbers; b. provide verifiable nameplate data, where the nameplate contains the required ANSI accuracy information and is affixed to the instrument transformers; and c. Measurement Canada-type approval information, where such approval contains the required ANSI accuracy information Accuracy Requirements Where accuracy tests are required, they shall comply with the following requirements: a. tests shall be carried out by a third-party testing agency using equipment traceable to Canadian national standards; b. tests shall be conducted with the existing burden connected to each current transformer; c. additional tests shall be conducted at other suitable burdens if the existing burden is expected to change in the future; d. tests shall include on-site ratio and phase-angle error tests; e. on-site ratio- and phase-angle tests of current transformers shall be measured over a range of secondary current from not more than 0.1 ampere to not less than the rating factor; f. where the secondary current is less than 0.1 ampere, an additional test point shall be provided at the minimum load current; and g. test results shall provide correction factors to be applied to both active and reactive power at each test point. 22 Public Issue 11.0 September 9, 2015
35 6. Instrument Transformers Other Identical Units Where an instrument transformer is identical to another unit tested on-site, as described in section , the instrument transformer shall be considered as having met the requirements listed there provided that: a. copies of manufacturer s records verify that the instrument transformer is identical; and b. copies of installation records or other documentation certify that the applied burden is either identical to that carried by the tested unit or within the measured ability of the tested unit Security Instrument transformer installations shall conform to the security requirements of section Rated Burden Instrument transformer installations shall conform to rated burden Replacement Where an instrument transformer is replaced, it shall be replaced with units compliant with the requirements of section Upgraded or Refurbished Metering Installation or Metered Facility Where the instrument transformers are substantially upgraded or refurbished, the instrument transformers shall comply with sections 6.9 and 6.10 and shall comply with section 4.2. End of Section Issue 11.0 September 9, 2015 Public 23
36 7. Secondary Cabling for Instrument Transformers Wholesale Revenue Metering Standard - Hardware 7. Secondary Cabling for Instrument Transformers 7.1 Applicability The requirements in this section apply to all instrument transformers used in all metering installations. 7.2 New Current Transformers Size of Secondary Cabling The secondary cabling between the current transformers and the meter enclosures shall be of a sufficient size that the rated burden for the 0.3 ANSI accuracy class is not exceeded when current, equivalent to the rated current, flows in the secondary winding. 7.3 New Voltage Transformers Minimizing Error The error introduced by the secondary cable and terminations shall be minimized Correction Factor Where the error introduced by the secondary cable and connections exceeds 0.02%, a correction factor shall be submitted to the IESO Error Limit The error introduced by the secondary cable and connections shall not exceed 1.0%. 7.4 Additional Requirements New Instrument Transformers Codes and Conditions Instrument transformer secondary cabling and cabling accessories shall comply with the following codes and conditions: a. the Ontario Electrical Safety Code; b. Measurement Canada colour coding (where appropriate, permanent tagging/labelling may be used); 24 Public Issue 11.0 September 9, 2015
37 7. Secondary Cabling for Instrument Transformers c. the current transformers shall be dedicated to the main/alternate metering installation and used for no other purpose; d. voltage transformers with one secondary winding shall be dedicated to the main/alternate metering installation and used for no other purpose; e. voltage transformers with two secondary windings may be used for purposes other than wholesale metering. The metering installation shall comply with the following: the main meter is connected to one dedicated winding the alternate meter and all other devices are connected to the other winding. the voltage transformers operate within the rated burden limits for the 0.3 ANSI accuracy class and meets all other requirements such as VEE. all devices connected to the voltage transformers shall be installed inside the meter enclosure f. for a dual main/alternate metering installation, the alternate instrument transformers may be used for purposes other than wholesale metering. The metering installation shall comply with the following: the alternate instrument transformers operate within the rated burden limits for the 0.3 ANSI accuracy class and meets all other requirements such as VEE all devices connected to the alternate instrument transformers shall be installed inside the meter enclosure g. electrical connection to the instrument transformer secondary terminals shall not be permitted outside of the meter enclosure; h. cabling from the instrument transformers to the meter enclosure shall be routed in dedicated conduit or have protective qualities such as Teck 90 cabling; i. the route shall be visually traceable, where buried cable is unavoidable such as underneath a roadway, a Witness of Buried Section Instrument Transformer Secondary Cables must be completed and submitted to the IESO in Online IESO; and j. all in-use secondary terminals of each instrument transformer shall be brought to the test block on a separate conductor. For the case of the voltage transformer, a single conductor may be used as a common return to the test block. 7.5 Secondary Cabling Existing Installations Installations Prior to Market Rules The use of existing cabling installed in facilities constructed before the Market Rules come into effect, shall be subject to the approval of the IESO. Issue 11.0 September 9, 2015 Public 25
38 7. Secondary Cabling for Instrument Transformers Wholesale Revenue Metering Standard - Hardware Requirements Existing secondary cabling shall comply with the following requirements: a. meter(s) shall be connected to the instrument transformers as registered; b. fixtures (such as AC outlets and voltage test points) that may allow unauthorized access to the instrument transformer secondaries shall be removed, disabled, or made inaccessible by a sealed cover; c. any remaining devices connected to the instrument transformer secondary cables shall be sealed; d. as many of the requirements listed in section 7.4 as practicable; e. all non-conformance with IESO approval requirements shall be listed; and f. where the requirements of section 7.4 are not met, error correction factors shall be submitted to the IESO Constant Correction Factor For existing voltage transformer installations where the error introduced by the secondary cable and connections exceeds 0.02%, a constant correction factor shall be submitted to the IESO Replacement Where the cabling is subsequently replaced after the Market Rules come into effect, it shall conform to the requirements of sections 7.3 and Upgraded or Refurbished Metering Installation or Metered Facility Where the secondary cabling is substantially upgraded or refurbished, the secondary cabling shall comply with sections 7.3 and 7.4. End of Section 26 Public Issue 11.0 September 9, 2015
39 8. Instrument Transformer Burdens All Installations 8. Instrument Transformer Burdens All Installations 8.1 General IESO Approval Devices connected to the meter s instrument transformers shall be subject to IESO approval Review Requirements Burden approval shall include a review of: a. every device connected to every instrument transformer; b. the burden imposed by each device; and c. the size of the conductors in the secondary cabling and the length of the path followed by the cabling Alter Secondary Connections or Burden Secondary connections or burdens of registered metering installations shall not be altered without prior approval of the IESO. 8.2 Verification of Connections All Installations Tracing and Verification Circuits The meter s instrument transformer secondary circuits shall be traced and the connected burden verified Tracing and Verification Connection of Terminals Connection of the instrument transformer terminals to the meter enclosure shall be visually verified and electrically traced. 8.3 Verification of Burden All Installations Measurement or Calculation The burden on each main and alternate instrument transformer shall be either measured at the secondary terminals of the instrument transformer or calculated from the connected devices. Issue 11.0 September 9, 2015 Public 27
40 8. Instrument Transformer Burdens All Installations Wholesale Revenue Metering Standard - Hardware On-site Testing Where the nameplate data required for the burden calculation is not available for any device connected to an instrument transformer, the burden shall be established by on-site testing Not to Exceed Nameplate Ratings The measurement or calculation shall verify that actual burdens in service do not exceed the nameplate ratings of any instrument transformer. 8.4 Burden Calculation All Current Transformers General Requirements The burden calculation for a current transformer shall include: a. the impedance of the secondary wiring; b. the impedance of all devices connected to the current transformer; c. the apparent impedance associated with the connection of current transformer secondaries; d. the apparent impedance associated with the sharing of a common current path through a measuring device with another current transformer; e. the apparent impedance associated with the sharing of an IESO-approved common-return conductor; f. the apparent impedance associated with the impedance of any other current transformer(s) connected in parallel with subject instrument transformer; g. burden under balanced power system conditions; and h. worst-case unbalance, including single-phase power Establishing the Burden The calculation shall establish the burden as the ratio of the voltage and current at the secondary terminals of the current transformer Rated Burden Limit The calculated burden: a. for new installations, shall not exceed the rated burden limit for the 0.3 ANSI accuracy class; and b. for existing installations, shall not exceed the rated burden limit of its own accuracy class. 8.5 Burden Calculations All Voltage Transformers General Requirements The burden calculation for a voltage transformer shall include the apparent power and power factor at the secondary terminals of the instrument transformer. 28 Public Issue 11.0 September 9, 2015
41 8. Instrument Transformer Burdens All Installations Allowance for Worst-Case Unbalance If the secondary cabling uses a common return, allowance must be made for worst-case unbalance including loss of secondary fusing or single-phase power on the power system Rated Burden Limit The calculated burden: a. for new installations, shall not exceed the rated burden limit for the 0.3 ANSI accuracy class; and b. for existing installations, shall not exceed the rated burden limit of its own accuracy class. End of Section Issue 11.0 September 9, 2015 Public 29
42 9. Parallel Connected Current Transformer Secondaries Wholesale Revenue Metering Standard - Hardware 9. Parallel Connected Current Transformer Secondaries 9.1 New Installations Prohibition in New Installation Parallel connected current transformer secondaries are not permitted in new installations. 9.2 Existing Installations IESO Approval Where parallel connected current transformer secondaries existed within facilities constructed before the Market Rules come into effect, approval shall be obtained from the IESO to continue use within the IESO-administered market Requirements for Approval The requirements for approval are: a. current transformers shall have the same nominal ratio and the same secondary ampere rating; b. paralleled secondaries shall be connected to the same phase; c. phasing shall be consistent on both primary and secondary circuits; d. paralleling of secondaries shall be done at the test links directly connected to the meter; e. each meter point shall have its own current test links; f. paralleled secondaries shall be used to sum currents from no more than two meter points; g. a common point shall exist at the primary voltage to which each of the measured flows is connected; h. the primaries of the voltage transformers for the paralleled installation must be connected to the common point; i. the burden on any current transformer shall not exceed the rated burden; j. the burden shall be kept as low as practicable and shall take into account the effects of common secondary leads and worst-case unbalance; k. worst-case unbalance shall include operation of secondary fusing or single phase primary power; l. the meter shall be rated at twice the secondary rating of one current transformer; m. current transformers shall not operate below 10% of the secondary ampere rating under normal operating conditions; n. the primaries of the current transformers shall not be paralleled; 30 Public Issue 11.0 September 9, 2015
43 9. Parallel Connected Current Transformer Secondaries o. where a switching device exists between the primary connection point of the current transformers, the IESO shall be notified whenever the paralleled current transformers are operated with the switching device open; and p. notification shall identify the date, time and duration, and current and voltage readings for both meter points before, after, and at regular intervals during the period of disconnection. Notification must also provide a correction factor calculated from the readings that the IESO shall use to edit the metering data collected Elimination Current transformer parallel connected secondaries shall be eliminated at the next opportunity when major work or upgrading is carried out at the meter points. End of Section Issue 11.0 September 9, 2015 Public 31
44 10. Metering Installation Enclosure Wholesale Revenue Metering Standard - Hardware 10. Metering Installation Enclosure 10.1 New Installations Meter Enclosure All meters, test links, and fuses shall be contained within a meter enclosure. The communication equipment, such as an external modem or a telephone line switcher, may be located in a separate locked enclosure under strict control of the metered market participant provided that the equipment is supplied from an external power source; otherwise the communication equipment shall be contained in the meter enclosure Meter Enclosure Requirements The meter enclosure shall comply with the following requirements: a. the meter enclosure shall be secured by the metering service provider, in a manner approved by the IESO; b. the metering service provider shall have access to the meter enclosure at all times; c. access to the meter enclosure for purposes of isolation work protection or meter communications servicing by persons other than the metering service provider shall only be given under metering service provider control; d. the meter enclosure shall be locked and sealed in a manner approved by the IESO to ensure the detection of unauthorized access to the instrument transformer connections, meter, test links, test link cover and fuses; e. the meter enclosure that contains multiple metering installations (2 or more) shall be locked and sealed in a manner approved by the IESO. Internal meter components including meter sealing ring, meter adapter base, meter test block cover contained within the meter enclosure shall additionally be sealed to ensure the detection of unauthorized access to the individual metering installation s instrument transformer connections, meter, test links, test-link cover and fuses; Maintenance and On-site Audit Each meter point named in the meter seal log shall identify all associated circuit access point s (CAP s) with a record of the time, date and seal serial number. Each seal that is removed and replaced during maintenance and on-site audit shall be recorded for inspection by the IESO Test Blocks Test blocks shall be installed inside the meter enclosure to allow the current and voltage from each instrument transformer and each meter to be individually determined. 32 Public Issue 11.0 September 9, 2015
45 10. Metering Installation Enclosure 10.2 Existing Installations IESO Approval Existing metering installations installed before May 17, 2000 shall be accepted into the IESOadministered market, subject to IESO approval Requirements for Approval The requirements for security approval are: a. the metering installation shall be secure; b. the metering installation shall comply with as many requirements of section 10.1 as practicable; and c. where the existing metering installation does not meet the requirements of section 10.1, variances shall be listed and submitted to the IESO for approval. End of Section Issue 11.0 September 9, 2015 Public 33
46 11. Metering Installations Wholesale Revenue Metering Standard - Hardware 11. Metering Installations 11.1 Configurations of New Metering Installations Each new metering installation shall have one of the following configurations: a. A dual main/alternate metering installation comprised of two independent sets of instrument transformers which are approved by Measurement Canada, and meet the requirements of section 4.2 and section The main instrument transformers are connected to the main meter and alternate instrument transformers are connected to the alternate meter. See Figure B-1 for a graphical representation. b. A main/alternate metering installation comprised of a single set of instrument transformers (where the voltage transformers have dual secondary windings,) which are approved by Measurement Canada, and meet the requirements of section 4.2 and section The single set of instrument transformers are connected to both the main and alternate meters. See Figure B-3 for a graphical representation. c. A main/alternate metering installation comprised of a single set of instrument transformers connected to both the main and alternate meters, which are approved by Measurement Canada, and meet the requirements of section 4.2 and section See Figure B-2 for a graphical representation. d. A small or minor embedded generation facility metering installation may use a standalone meter consisting of either a main meter or an alternate meter from the conforming meter list. This metering installation shall be comprised of a single set of instrument transformers approved by Measurement Canada and connected to the meter Definition The meters are termed main and alternate; and the main meter is used for settlement Unavailability of Main Meter When the main meter is unavailable, the alternate meter s data shall replace the main meter s original data, in accordance with Market Manual 5: Settlements, Part 5.2: Metering Data Processing Configurations of Existing Metering Installations Each existing metering installation shall have one of the following configurations: a. A standalone main metering installation comprised of a single set of instrument transformers which are approved by Measurement Canada, and meet the requirements of section 6.10 or section The single set of instrument transformers are connected to the main meter only. See Figure B-4 for a graphical representation. b. A non-conforming standalone metering installation comprised of a non-conforming meter will no longer be accepted by the IESO after seal expiry. See Figure B-5 for a graphical representation. 34 Public Issue 11.0 September 9, 2015
47 11. Metering Installations Definition The meter is termed main; the main meter is used for settlement. The Alternate meter is not installed Unavailability of Main Meter When the main meter is unavailable estimated data shall be used for settlement, in accordance with Market Manual 5: Settlements, Part 5.2: Metering Data Processing Metering Installations for a Small or Minor Embedded Generation Facility a. Each new metering installation for a small or minor embedded generation facility that meets the requirements of the market rules, Chapter 6, section shall comply with all the requirements of this standard except where specifically noted otherwise. Any generation facility with a nameplate rating of less than 2 MVA or less than 17 GWh per annum can take advantage of this simpler revenue metering standard. b. The IESO will provide notice in writing whenever the small or minor embedded generation facility exceeds 17 GWh in any calendar year. The IESO will calculate the 17 GWh based on the IESO s meter reading data without the application of losses or measurement error correction. Upon receipt of such notice the metered market participant shall ensure that the metering installation is upgraded so that it is fully compliant with the market rules in Chapter 6. c. Whether or not there are multiple generation facilities under the metering installation is not relevant for purposes of measuring the application of the 17 GWh limit. The IESO will apply the 17 GWh limit at the metering installation irrespective of the number of generation facilities or the nature of the generation within the generation facility Registration a. Metering installations for small or minor embedded generation facilities shall have all delivered and received channels registered in the IESO-administered markets. Metering installations that have the received channels registered in the wholesale market and the delivered channels not in the wholesale market will not be approved. b. An Emergency Instrument Transformer Restoration Plan (EITRP) is not required as part of the registration process. c. For the duration of any outage of the metering installation or at any time when the IESO is unable to retrieve the metering data from the metering installation, the metering data will be estimated as zero in the received channels and at the maximum estimate in the delivered channels. This metering data will not be replaced by files received from the metering service provider (MSP) or the metered market participant (MMP) containing estimated data. Correction factors will be applied as per Market Manual 3.2, Appendix D, section 5 on the failure of an instrument transformer provided the IESO can continue to communicate with the meter, but MSP- or MMP-supplied estimated data will not be used. Issue 11.0 September 9, 2015 Public 35
48 11. Metering Installations Wholesale Revenue Metering Standard - Hardware Instrument Transformers a. In accordance with Chapter 6, section additional loads, such as control and protection devices, can be supplied from the revenue metering instrument transformers, subject to approval by the IESO. b. Approval by the IESO under subsection (a) above will be subject to the following conditions being met: The burden limit of the instrument transformers must not be exceeded. See section 8.3 of this Standard for details. Security and sealing requirements shall comply with section 6.2 of this Standard. c. To ensure that the meter multiplier on a registered metering installation is not inadvertently changed without notification of the IESO, the metered market participant shall have in place either a satisfactory system to manage access to the instrument transformer taps or it will check the meter multiplier on a regular basis. As part of the IESO site audit, the metered market participant may be requested to prove that such management systems exist or prove that the meter multipliers have been checked periodically. d. Consideration should be given by the metered market participant in section to using high accuracy current transformers meeting the defined 0.15 or 0.15S ANSI standard. Many small generation facilities like windmills often operate at low loads and the high accuracy current transformers may allow accurate measurement at these low loads. Current transformers that comply with the 0.3 ANSI accuracy class and can also meet 0.15 or 0.15S, and have a continuous current rating factor (up to 4.0) should be considered. End of Section 36 Public Issue 11.0 September 9, 2015
49 12. Hardware Support for the Validation Process 12. Hardware Support for the Validation Process 12.1 Validation Requirements New Metering Installations Compliance with IESO Procedure The validation process shall comply with the IESO Market Manual 5: Settlements, Part 5.2: Metering Data Processing Unadjusted Active and Reactive Interval Data The revenue metering installation shall provide the IESO with the unadjusted active and reactive interval data for use in the validation process. End of Section Issue 11.0 September 9, 2015 Public 37
50 13. Communications Standard for Metering Wholesale Revenue Metering Standard - Hardware 13. Communications Standard for Metering 13.1 Communications Hardware Compliance with IESO Standard The meter s communications system shall comply with the IESO communication interface of the metering database. TCP/IP (Transmission Control Protocol/Internet Protocol) communications shall be used for metering data communications. The metering TCP/IP communications shall comply with the IESO TCP/IP model for site-to-site VPN (Virtual Private Network). Modem port numbers must be verified with the IESO for port accessibility. Network addresses shall be assigned by the IESO to the market participant s network or the host metering service provider s network. Conforming meter port numbers must be acceptable to the IESO for TCP/IP communications. No new telephone-based communications shall be registered with the IESO unless approved by the IESO. Existing telephone-based communications shall continue to be accepted for metering data communications, subject to implementing TCP/IP communications compliance at the Measurement Canada meter seal expiry or the IESO metering installation registration date. Meters used for TCP/IP communications must be on the Conforming Meter List Compatibility with IESO Communication Interface The communications equipment installed shall be compatible with: IESO s Meter Data Acquisition System (MDAS) IESO shall be responsible for its own equipment to connect to the communication interface Data Availability Data communications shall be available to the IESO during the IESO call period as outlined on All metering communications failures shall be restored to meet metering data requirements in accordance with Chapter 6 of the Market Rules. 38 Public Issue 11.0 September 9, 2015
51 13. Communications Standard for Metering Main/Alternate Communications Main/Alternate communications systems and paths shall comply as follows: New facility metering installation registration shall implement metering TCP/IP communications effective January 1, Existing facility metering installation registration resulting from meter seal expiry; facility or metering installation reconstruction or reconfiguration; metering installation resupply, retermination or relocation shall provision for metering TCP/IP communications effective July 1, Completion shall be required in the year which is the earlier of the meter seal expiry or the metering installation re-registration. Preferred metering TCP/IP communications configuration shall support concurrent communication sessions to the meters. Metering TCP/IP communications shall be limited to a maximum of four meters per TCP/IP connection where concurrent connections are not supported. Metered market participant shall be responsible for the VPN connection, informing the IESO of VPN outages, and all metering data traffic incurred Communication Restriction The IESO understands that from time-to-time TCP/IP communications will be restricted or unavailable. Metered Market Participants/Metering Service Providers shall communicate with IESO prior to commencing registration work to discuss options. End of Section Issue 11.0 September 9, 2015 Public 39
52 14. Site-Specific Loss Adjustments Wholesale Revenue Metering Standard - Hardware 14. Site-Specific Loss Adjustments 14.1 Requirement for Site-Specific Loss Adjustment Data Compliance with IESO Procedure Loss adjustment shall comply with the IESO procedure Market Manual 3: Metering Part 3.5: Sitespecific Loss Adjustment and IESO s standard Site-specific Loss Adjustment Calculation of Losses Losses shall be calculated in software by the IESO based on information and calculations provided to the IESO. End of Section 40 Public Issue 11.0 September 9, 2015
53 15. Glossary of Terms 15. Glossary of Terms In addition to the terms listed here, refer to the definitions included in the Market Rules. The following terms were used in this standard: Actual meter point: In the case of loads, the physical location of the current transformers. In the case of generation facilities (with the current transformers on the output side of the unit), the physical location of the current transformers. In the case of generation facilities (with the current transformers on the grounded side of the unit), the output bushings of the generation facilities. Alternate meter: A meter which meets the requirements of Section 5.2 and is on the Conforming Meter List. In a Main/Alternate metering installation, the alternate is used for validation of data from the main meter. Alternate data may be substituted when valid data from the main meter is unavailable. Apparent impedance: The complex number (ratio) resulting from the division of the phasor voltage by the phasor current measured at the secondary terminals of an instrument transformer. Apparent power: The complex number resulting from the multiplication of the phasor voltage by the phasor current at the secondary terminals on an instrument transformer. Blondel s Theorem: The principle of electricity metering that states that the minimum number of elements required to measure power flowing past any point in a power system is one less than the number of conductors in the circuit. Conformance to Blondel s Theorem ensures accurate measurement when current or voltage is unbalanced. Burden: For a voltage transformer, the total volt-ampere load, with specified power factor, applied to the secondary terminals. For a current transformer, the total apparent impedance, expressed in ohms, connected to the secondary terminals. Buy direction: A reference direction for settlement purposes. Flow of active or reactive power from the transmission or distribution system into a generation facility or load facility. Conforming Meter List (CML): Meters which have been accepted for use in the IESOadministered market. The meters are referenced as a Main or an Alternate meter. All main meters may be used as an alternate meter. For new metering installations, only meters on CML shall be used. The CML is found on the IESO s Web site. Continuous current rating factor (RF): The number by which the rated primary current of a current transformer is multiplied to obtain the maximum primary current that can be carried continuously without exceeding the limiting temperature rise from 30 C above average ambient air temperature. The RF of tapped-secondary or multi-ratio transformers applies to the highest ratio, unless otherwise stated. Current summation: A method for deriving the combined power flow at two distinct defined meter points. A single main meter is supplied by the voltage transformers from one of the meter points and the paralleled secondaries of the current transformers at both meter points. Current transformer: An instrument transformer designed for the measurement or control of current. Its primary winding, which may be a single turn or bus bar, is connected in series with the load. It is normally used to reduce primary current by a known ratio within the range of a connected measuring device. Issue 11.0 September 9, 2015 Public 41
54 15. Glossary of Terms Wholesale Revenue Metering Standard - Hardware Defined meter point: A physical location either at the boundary of the IESO-controlled grid, or embedded within the distribution system, at which electrical quantities are either actually, or deemed to be, measured. Defined point of sale: A physical location on the boundary of the IESO-controlled grid at which settlement transactions are deemed to take place. Electronic current transformer: An electronic instrument transformer in which the output of the secondary converter in normal conditions of use is substantially proportional to the primary current and differs in phase from it by a known angle for an appropriate direction of the connections. Electronic instrument transformer: An arrangement consisting of one or more current or voltage sensor(s) which may be connected to transmitting systems and secondary converters, all intended to transmit a measuring quantity in a proportional quantity to supply measuring instruments, meters and protective or control devices. Electronic voltage transformer: An electronic instrument transformer in which the secondary voltage in normal conditions of use is substantially proportional to the primary voltage and differs in phase from it by an angle which is approximately zero for an appropriate direction of the connections. Element: A single-phase device for measuring the active or reactive power associated with the applied voltage and current. On a three-phase power system, a meter may comprise two or three elements, the outputs of which are summed to display total three-phase active or reactive power. High accuracy instrument transformer: References to ANSI 0.15 and 0.15S (superior) accuracy class for current transformer type. IESO: Independent Electricity System Operator. Main meter: A meter which meets the requirements of Section 5.1 and is on the Conforming Meter List. The main meter is always used for settlement where possible. Measurement Canada: The federal agency administering and enforcing the Electricity and Gas Inspection Act. Meter point documentation: A package of documents comprising a map or electrical one-line showing the location of the defined meter point, a totalization table, and documentation supporting site-specific loss adjustment and error-correction factors. Other information required in the package includes details needed for the collection of data, such as telephone number, password, and translation interface module (TIM). A copy of any analysis or power flow studies used to develop loss adjustments shall also be included. Other required details include supply point details, such as operating designation, voltage, instrument transformer ratios, multipliers, length of data storage and format, existence of Main/Alternate, and names and telephone numbers to facilitate problem resolution. Meter service organization: An organization accredited by Measurement Canada to verify and seal meters for its own organization and other organizations. Metering maintenance: Activities carried out to verify correct operation of the meter and instrument transformers installed at a meter point. Includes installation repairs, and replacement and preparation of meter point documentation. Non-Conforming Standalone Meter: A meter not on the Conforming Meter List but is Measurement Canada approved, capable of collating interval data, compatible with the IESO s software system and capable of time synchronization. Normally these meters were installed before the Market Rules came in effect. 42 Public Issue 11.0 September 9, 2015
55 15. Glossary of Terms Registration: The entry of metering information into the IESO data collection system databases. Registration is conducted after comprehensive on-site and end-to-end testing is conducted to verify remote access to metered data and accurate replication of meter parameters and measured quantities at the IESO. Sell direction: A reference direction for settlement purposes. The flow of active or reactive power from a generation facility or load facility, into the transmission or distribution system. Site-specific loss adjustment: If the actual meter point is not at the defined meter point, the meter readings shall be adjusted to account for the difference. Application of the loss adjustment results in readings that would have been obtained if the meter had been installed at the defined meter point. Totalization table: A list of defined meter points, the flows of which are to be algebraically summed when calculating the total transaction of a metered market participant. A totalization table also provides additional details for each data channel to be summed. Voltage transformer: An instrument transformer intended for measurement of control purposes which is designed to have its primary winding connected in parallel with a circuit, the voltage of which is to be measured or controlled. Wholesale metering: All equipment installed to measure and record physical transactions at defined meter point in the IESO-administered markets. End of Section Issue 11.0 September 9, 2015 Public 43
56 15. Glossary of Terms Wholesale Revenue Metering Standard - Hardware 44 Public Issue 11.0 September 9, 2015
57 Appendix A: Forms Appendix A: Forms This appendix contains a list of forms used in the Wholesale Revenue Metering Standard-Hardware, which are available on the IESO Web site ( The forms included are listed in the table below. Form Name Notification of Power Switching IMO-FORM-1464 Form Number End of Section Issue 11.0 September 9, 2015 Public A 1
58 Appendix B: Metering Installation Figures Appendix B: Metering Installation Figures The following figures are provided in this appendix: a. Figure B.1: Dual Main/Alternate Metering Installation b. Figure B.2: Main/Alternate Metering Installation c. Figure B.3: Main/Alternate Metering Installation- Dual Secondary Windings d. Figure B.4: Standalone Main Metering Installation e. Figure B.5: Standalone Non-Conforming Metering Installation Issue 11.0 September 9, 2015 Public B 1
59 Appendix B: Metering Installation Figures MDP_STD_0004 New: OK a) Main Alternate Test Links Test Links Enclosure ITs Local Ouput Data Local Ouput Data Conduit New: OK b) Main Alternate Test Links Test Links Enclosure Device ITs Local Ouput Data Local Ouput Data Conduit Note: "Device" may include external modems, telephone line switcher, cellular phone unit, anti-condensation heater, operational meter and must satisfy the requirements of section f of this standard Figure B-1: Dual Main/Alternate Metering Installation B 2 Public Issue 11.0 September 9, 2015
60 Appendix B: Metering Installation Figures New: OK Main Alternate Test Links Test Links Enclosure ITs Local Ouput Data Local Ouput Data Conduit Note: Installation of external modems and telephone line switcher is permitted within the meter enclosure Figure B-2: Main/Alternate Metering Installation Issue 11.0 September 9, 2015 Public B 3
61 Appendix B: Metering Installation Figures MDP_STD_0004 New: OK a) Main Alternate Enclosure Test Links Test Links CT in Conduit VT New OK b) Main Alternate Enclosure CT Test Links Device Test Links in Conduit VT Note: "Device" may include external modems, telephone line switcher, cellular phone unit, anti-condensation heater, when contained within the meter enclosure. Connnection of external devices to the current circuit is not permitted and must satisfy the requirements of section e Figure B-3: Main/Alternate Metering Installation - Dual Secondary Windings B 4 Public Issue 11.0 September 9, 2015
62 Appendix B: Metering Installation Figures New: Not Acceptable Main Existing: OK, (refer to Chapter6, 4.4.1A ) may replace Non-conforming Standalone at Seal Expiry Test Links Enclosure ITs Local Ouput Data Conduit New: Not Acceptable Main Existing: OK, (refer to Chapter6, 4.4.1A) may replace Non-conforming Standalone at Seal Expiry Test Links Enclosure Local Ouput Data ITs Terminal Strip Device Note: Device must satisfy the requirements of section of this standard Figure B-4: Standalone Main Metering Installation Issue 11.0 September 9, 2015 Public B 5
63 Appendix B: Metering Installation Figures MDP_STD_0004 Non- Conforming Standalone New: Existing: Not Acceptable OK at Market Openning. Subject to Market Rules Appendix 6.2 at Seal Expiry Test Links Enclosure ITs Local Ouput Data Conduit Non- Conforming Standalone New: Existing: Not Acceptable OK at Market Openning, Subject to Market Rules Appendix 6.2 at Seal Expiry Test Links Enclosure Local Ouput Data ITs Terminal Strip Device Note: Device must satisfy the requirements of section of this standard Figure B-5: Standalone Non-Conforming Metering Installation End of Section B 6 Public Issue 11.0 September 9, 2015
64 Appendix C: Blondel Conformance Appendix C: Blondel Conformance TS VT Blondel Compliant 3 Wire Distribution System Transformer station (TS) has a wye secondary that is grounded through impedance or is solidly grounded. The ground/neutral is not brought outside the transformer station. Metering installation located inside the transfomer station consists of three current transformers and three voltage transformers connected phase to ground/neutral and are inputs to a 3 element meter. M 3 Element 3 Wire Distribution System supplies delta or wye ungrounded loads. Metering installations located within the distribution system are 2 element. TS M VT 2 Element Blondel Compliant 3 Wire Distribution System Transformer station has a delta or ungrounded wye secondary. Two current transformers and two voltage transformers connected phase to phase are inputs to a 2 element meter. 3 Wire Distribution System supplies delta, wye grounded or wye ungrounded loads. Metering installations located within the distribution system are 2 element. TS M VT 3 Element Blondel Compliant 4 Wire Distribution System Transformer station has a wye secondary that is grounded through impedance or solidly grounded. The neutral is brought outside the transformer station. Three current transformers and three voltage transformers connected phase to ground/neutral are inputs to a 3 element meter. 4 Wire Distribution System supplies delta, wye grounded or wye ungrounded loads. Metering installations located within the distribution system are 3 element. TS M VT 2 Element Grounding Bank M VT 3 Element Blondel Compliant 4 Wire Distribution System Transformer station has a delta or ungrounded wye secondary. Grounding bank is located within the transformer station and the neutral is brought outside the station. Metering installation located on the line side of the grounding bank consists of two current transformers and two voltage transformers connected phase to phase and are inputs to a 2 element meter. Metering installation located on the load side of the grounding bank consists of three current transformers and three voltage transformers connected phase to ground/neutral and are inputs to a 3 element meter. 4 Wire Distribution System supplies delta, wye grounded or wye ungrounded loads. Metering installations located within the distribution system are 3 element. Figure C-1: Illustrations of Blondel Conformance End of Section Issue 11.0 September 9, 2015 Public C 1
65 Appendix D: VT Primary Switching Appendix D: VT Primary Switching 1 MV Switchgear with VT Rack-out Drawer M A 2 MV SF6 Switchgear with VT Primary Gnd. Switch M A 3 VT Primary Fused Switch M A 4 CVT Grounding Switch M A Figure D-1: VT Primary Switching Devices and Rack-out Mechanisms End of Section Issue 11.0 September 9, 2015 Public D 1
66 References References Document Name Market Rules for the Ontario Electricity Market Market Manual 5: Settlements, Part 5.2: Metering Data Processing Market Manual 3: Metering Part 3.5: Site-Specific Loss Adjustments Site-Specific Loss Adjustments IMO Policy on Security of Meter Data Canadian Standards Association C13 Instrument Transformers CAN3- C13-M83 ANSI/IEEE C IEEE Guide for Grounding of Instrument Transformer Secondary Circuits and Cases Ontario Electrical Safety Code ANSI C12.16, Solid State Electricity Meters IMO policy IMO Policy on Security of Registered Wholesale Meters, Metering Installations and Metering Data ANSI C for Electricity Meters 0.2 and 0.5 Accuracy Classes CAN 3-C17-M84: Canadian specification for approval of type of electricity meters CAN 3-Z : Canadian specification for all-numeric dates and times. Industry Canada Consolidation of the Electricity and Gas Inspection Act LMB-EG-01 Industry Canada Specifications for Approval of Type of Electricity Meters, Instrument Transformers and Auxiliary Devices ANSI/IEEE C (Reaffirmed 1986) Standard Requirements for Instrument Transformers IEEE C IEEE Standard for High-Accuracy Instrument Transformers IEEE C IEEE Standard Requirements for Instrument Transformers CAN/CSA-C :07 Instrument transformers Part 1: Current transformers CAN/CSA-C :07 Instrument transformers Part 2: Inductive voltage transformers CAN/CSA-C :07 Instrument transformers Part 3: Combined transformers Document ID MDP_RUL_0002 MDP_PRO_0032 MDP_PRO_0011 MDP_STD_0005 Issue 11.0 September 9, 2015 Public References 1
67 References MDP_STD_0004 Document Name CAN/CSA-C :07 Instrument transformers Part 5: Capacitor voltage transformers CAN/CSA-C :07 Instrument transformers Part 8: Electronic current transformers CAN/CSA-C :07 Instrument transformers Part 7: Electronic voltage transformers Handbook for Electricity Metering, 10 th Edition Document ID End of Document References-2 Public Issue 11.0 September 9, 2015
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