IEEE Standard for Interconnection and Interoperability of Inverter-Based Resources (IBRs) Interconnecting with Associated Transmission Electric Power Systems
Updated 2026-10-24
| Standard | Edition | Kind | Current | Record |
|---|---|---|---|---|
| IEEE Standard for Interconnection and Interoperability of Inverter-Based Resources (IBRs) Interconnecting with Associated Transmission Electric Power Systems | 2022 | Approval | std.ieee-2800.approved |
Data records
- The IEEE SA Standards Board approved IEEE 2800-2022 on 2022-02-09. Value: 2022.
- In the clause 3.1 definitions of IEEE 2800-2022 the continuous, mandatory and permissive operation regions are adapted from IEEE 1547-2018; the behavior that IEEE 1547-2018 calls momentary cessation is termed current blocking here, and a unit in the permissive region may ride through either by staying in mandatory operation or by current blocking.
- Clause 3.1 of IEEE 2800-2022 defines the continuous rating of an inverter-based resource as the steady-state active power rating registered with the transmission system operator, on which most capability requirements are expressed, alongside a short-term rating that may temporarily exceed it and a continuous absorption rating for energy storage.
- Clause 4.2.1 of IEEE 2800-2022 makes the point of measurement the default reference point of applicability for plant-level requirements; the transmission system owner or operator can relocate it, the point of interconnection being one example, while unit-level requirements use the point of connection.
- Clause 3.1 of IEEE 2800-2022 counts only wind turbine generators that use power electronics as inverter-based resources, namely the doubly-fed type III and the full-converter type IV configurations; type I, type II and type V machines are not inverter-based resources under the standard.
- IEEE 2800-2022 is the designation of the IEEE standard on the interconnection and interoperability of inverter-based resources with associated transmission electric power systems. Value: IEEE 2800-2022.
- IEEE 2800-2022 sets the interconnection capability and performance requirements for inverter-based resource plants connected to transmission and sub-transmission systems, covering ride-through of abnormal voltage and frequency, control of active and reactive power, dynamic support during abnormal frequency and voltage, system protection, injection of negative-sequence current and power quality. Clause 1.2 also applies the standard to an isolated resource connected through a dedicated voltage-source-converter HVDC facility, treating the resource and the HVDC facility together as the plant.
- Clause 1.4 of IEEE 2800-2022 applies the standard to every inverter-based resource technology at transmission and sub-transmission voltage levels, meshed or radial. Where a radial sub-transmission connection falls under both this standard and IEEE 1547-2018, an overlap the standard accepts deliberately, the authority governing interconnection requirements chooses which of the two applies.
- Clause 1.4 of IEEE 2800-2022 leaves several matters outside the standard: it sets no voltage-level or plant-size threshold for applicability, it neither defines a maximum resource capacity at a point of interconnection nor specifies interconnection studies, single-phase open conditions and single-pole tripping are not covered, and the non-inverter portion of a hybrid plant and environmental design-basis conditions are excluded.
- Clause 1.4 of IEEE 2800-2022 applies its requirements to the inverter-based resource plant as a whole rather than to the individual equipment within it, and distinguishes a capability requirement, which must be ready to enable, from a performance requirement, which governs behavior while a function is executing; whether a function is enabled in service is outside the standard.
- In IEEE 2800-2022 an inverter-based resource means a solar photovoltaic, wind or energy storage plant or a combination of them; clause 1.2 excludes flexible ac transmission system devices, synchronous condensers and synchronous generator plants.
- Three committees of the IEEE Power and Energy Society developed IEEE 2800-2022: the Energy Development and Power Generation Committee, the Electric Machinery Committee and the Power System Relaying and Control Committee.
- IEEE 2800-2022 is the first edition of IEEE 2800 and is a standard written with mandatory language, rather than a guide or a recommended practice.
- Clause 6 of IEEE 2800-2022 covers active power and frequency response: clause 6.1 requires primary frequency response in both directions on separately settable droop characteristics, with parameters in Table 7 and dynamic performance in Table 8, and clause 6.2 requires fast frequency response capability that is not enabled by default, with a wind-specific variant in clause 6.2.3 and further variants in informative Annex K.
- Clause 5.2 of IEEE 2800-2022 defines three mutually exclusive reactive power control modes, voltage control, power factor control and reactive power set point control, with voltage control as the default unless the transmission system operator directs otherwise; Table 5 states the performance targets for voltage control, and each mode carries a steady-state band and a minimum damping requirement.
- Clause 7.2.2.3 of IEEE 2800-2022 governs unit behavior during ride-through at the point of connection: reactive current priority is the default, units inject negative-sequence current during unbalanced faults, the magnitude of incremental reactive current is intentionally left to the transmission system owner, and Table 13 states the response time, settling time and settling band for the unit's current response.
- Clause 4.10 of IEEE 2800-2022 defines the conditions for entering service where the transmission system operator has not specified its own practice: Table 3 lists a permit-service setting and windows of applicable voltage and frequency, with defaults set by the transmission system operator, and clause 4.10.3 shapes the active power ramp that follows; under clause 7.4 a plant returning to service after a trip meets the same criteria.
- Clause 7.3.2 of IEEE 2800-2022 defines frequency ride-through through Table 15, a continuous operation region and a mandatory operation region bounded by stated frequency offsets with a cumulative minimum time, and adds ride-through of a stated rate of change of frequency in clause 7.3.2.3.5 and of positive-sequence phase angle jumps in clause 7.3.2.4.
- Clause 4.4 of IEEE 2800-2022 sets minimum accuracies, in Table 1 for the steady-state time frame and Table 2 for the transient time frame, for the plant measurements retained under clause 11; these are accuracies of the plant's own recording and control measurements, not of test instruments, and the standard states no accuracy for the quantities that drive control performance.
- Clause 11 of IEEE 2800-2022 specifies the measurement data a plant retains and makes available to the transmission system owner, listed in Table 19: plant supervisory control data, equipment status, unit settings, sequence of events, digital fault and dynamic disturbance recordings, inverter fault codes and power quality records, all time-synchronized to coordinated universal time, with the waveform and power quality recordings held in the COMTRADE and PQDIF formats.
- Clause 10 of IEEE 2800-2022 requires the plant owner to provide, on request, verified plant-level models for power flow, positive-sequence stability, electromagnetic transient, short-circuit and harmonic studies, with their verification documentation and a narrative of the control strategy, and to update them after agreed control modifications and after mismatches with recorded events; Annex G lists the data.
- IEEE 2800-2022 specifies no mandatory voltage or frequency trip settings: clause 7.2.1 and clause 7.3.1 leave tripping to whatever protection clause 9 permits, and clause 9 only constrains that protection so that it does not defeat the ride-through requirements.
- Clause 8 of IEEE 2800-2022 covers power quality at the point of measurement: rapid voltage changes in clause 8.1.2, flicker in clause 8.1.3 with Table 16, harmonic current distortion in clause 8.2.1 with Table 17 and Table 18, harmonic voltage in clause 8.2.2, for which the standard sets no limit values, and overvoltage caused by the plant in clause 8.3.
- Clause 9 of IEEE 2800-2022 does not itself require frequency protection, rate-of-change-of-frequency protection, overcurrent protection on each item of equipment, or unintentional islanding protection; any such protection that is applied must leave the plant able to meet its ride-through requirements and must be coordinated with the transmission system's protection and its load-shedding schemes.
- Clause 5.1 of IEEE 2800-2022 requires a minimum dynamic reactive power capability, injecting and absorbing, at the reference point of applicability, expressed on the continuous rating and required across the active power range including zero output, with stated exceptions for plants of type III wind turbines and for ac-connected offshore plants; Figure 8 with Table 4 gives the dependence of that capability on voltage.
- Clause 7.2.3 of IEEE 2800-2022 states transient overvoltage ride-through in Table 14 as minimum cumulative durations by band of instantaneous voltage, referenced to the nominal instantaneous peak at the reference point of applicability, and requires surge protection at the reference point and inside the plant above the highest band.
- Clause 12 of IEEE 2800-2022 states which verification methods apply to each requirement and when, requires the results to be formally documented, and defers the test procedures and pass or fail criteria to a separate recommended practice on test and verification, IEEE 2800.2.
- Table 20 of IEEE 2800-2022, in clause 12.3, maps each requirement to the verification methods that are required, not required, dependent on the design evaluation or not applicable; voltage, transient overvoltage and frequency ride-through are not verified by commissioning tests but by unit type tests, the design evaluation and post-commissioning monitoring.
- Clause 12.2 of IEEE 2800-2022 defines eight verification methods: type tests on representative units, a design evaluation by modeling and simulation, an as-built installation evaluation on site, commissioning tests, model validation and monitoring after commissioning, periodic tests, and periodic verification after substantial changes.
- Clause 7.2.2.1 of IEEE 2800-2022 states voltage ride-through as minimum cumulative durations by voltage band, in Table 11 for plants whose auxiliary equipment limits ride-through and in Table 12 for plants without such equipment; the design evaluation of clause 12 decides which of the two tables a plant follows, the durations are design criteria rather than field test criteria, and the point of measurement is the default reference point.
- The front matter of IEEE 2800-2022 gives its full title as IEEE Standard for Interconnection and Interoperability of Inverter-Based Resources (IBRs) Interconnecting with Associated Transmission Electric Power Systems. Value: IEEE Standard for Interconnection and Interoperability of Inverter-Based Resources (IBRs) Interconnecting with Associated Transmission Electric Power Systems.
Sources
- IEEE 2800-2022, Interconnection and Interoperability of Inverter-Based Resources with Transmission Systems, 2022 edition, IEEE. Cited: clause Front matter; clause 3.1; clause 4.2.1; clause 1.2; clause 1.4; clause 1.2, footnote 10; clause 6; clause 5.2; clause 7.2.2.3; clause 4.10; clause 7.3.2; clause 4.4; clause 11; clause 10; clause 7.2.1, 7.3.1, 9; clause 8; clause 9; clause 5.1; clause 7.2.3; clause 12.1; clause 12.3.2; clause 12.2; clause 7.2.2.1. Held as: Purchased single-user copy.
Obtaining the documents
- IEEE 2800-2022: publisher catalog or sales page
Changelog (77 entries)
| Date | Revision | Change |
|---|---|---|
| 2026-10-24 | created (std.ieee-2800.approved) | |
| 2026-10-24 | revised (std.ieee-2800.approved) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.approved) | |
| 2026-10-24 | created (std.ieee-2800.definition.operating-regions) | |
| 2026-10-24 | revised (std.ieee-2800.definition.operating-regions) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.definition.operating-regions) | |
| 2026-10-24 | created (std.ieee-2800.definition.ratings) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.definition.ratings) | |
| 2026-10-24 | created (std.ieee-2800.definition.reference-point-of-applicability) | |
| 2026-10-24 | revised (std.ieee-2800.definition.reference-point-of-applicability) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.definition.reference-point-of-applicability) | |
| 2026-10-24 | created (std.ieee-2800.definition.wind-turbine-generator) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.definition.wind-turbine-generator) | |
| 2026-10-24 | created (std.ieee-2800.designation) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.designation) | |
| 2026-10-24 | created (std.ieee-2800.scope) | |
| 2026-10-24 | revised (std.ieee-2800.scope) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.scope) | |
| 2026-10-24 | created (std.ieee-2800.scope.applicability) | |
| 2026-10-24 | revised (std.ieee-2800.scope.applicability) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.scope.applicability) | |
| 2026-10-24 | created (std.ieee-2800.scope.exclusions) | |
| 2026-10-24 | revised (std.ieee-2800.scope.exclusions) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.scope.exclusions) | |
| 2026-10-24 | created (std.ieee-2800.scope.plant-level) | |
| 2026-10-24 | revised (std.ieee-2800.scope.plant-level) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.scope.plant-level) | |
| 2026-10-24 | created (std.ieee-2800.scope.resource-types) | |
| 2026-10-24 | revised (std.ieee-2800.scope.resource-types) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.scope.resource-types) | |
| 2026-10-24 | created (std.ieee-2800.sponsor) | |
| 2026-10-24 | revised (std.ieee-2800.sponsor) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.sponsor) | |
| 2026-10-24 | created (std.ieee-2800.status) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.status) | |
| 2026-10-24 | created (std.ieee-2800.structure.active-power-frequency) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.active-power-frequency) | |
| 2026-10-24 | created (std.ieee-2800.structure.control-modes) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.control-modes) | |
| 2026-10-24 | created (std.ieee-2800.structure.current-injection) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.current-injection) | |
| 2026-10-24 | created (std.ieee-2800.structure.enter-service) | |
| 2026-10-24 | revised (std.ieee-2800.structure.enter-service) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.enter-service) | |
| 2026-10-24 | created (std.ieee-2800.structure.frequency-ride-through) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.frequency-ride-through) | |
| 2026-10-24 | created (std.ieee-2800.structure.measurement-accuracy) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.measurement-accuracy) | |
| 2026-10-24 | created (std.ieee-2800.structure.measurement-data) | |
| 2026-10-24 | revised (std.ieee-2800.structure.measurement-data) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.measurement-data) | |
| 2026-10-24 | created (std.ieee-2800.structure.modeling-data) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.modeling-data) | |
| 2026-10-24 | created (std.ieee-2800.structure.no-trip-settings) | |
| 2026-10-24 | revised (std.ieee-2800.structure.no-trip-settings) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.no-trip-settings) | |
| 2026-10-24 | created (std.ieee-2800.structure.power-quality) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.power-quality) | |
| 2026-10-24 | created (std.ieee-2800.structure.protection) | |
| 2026-10-24 | revised (std.ieee-2800.structure.protection) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.protection) | |
| 2026-10-24 | created (std.ieee-2800.structure.reactive-power) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.reactive-power) | |
| 2026-10-24 | created (std.ieee-2800.structure.transient-overvoltage) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.transient-overvoltage) | |
| 2026-10-24 | created (std.ieee-2800.structure.verification) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.verification) | |
| 2026-10-24 | created (std.ieee-2800.structure.verification-matrix) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.verification-matrix) | |
| 2026-10-24 | created (std.ieee-2800.structure.verification-methods) | |
| 2026-10-24 | revised (std.ieee-2800.structure.verification-methods) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.verification-methods) | |
| 2026-10-24 | created (std.ieee-2800.structure.voltage-ride-through) | |
| 2026-10-24 | revised (std.ieee-2800.structure.voltage-ride-through) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.structure.voltage-ride-through) | |
| 2026-10-24 | created (std.ieee-2800.title) | |
| 2026-10-24 | review_status unreviewed -> software_reviewed (std.ieee-2800.title) |
Cite this page
Cite the governing standard for the fact itself; cite this page as the finding aid.
"IEEE Standard for Interconnection and Interoperability of Inverter-Based Resources (IBRs) Interconnecting with Associated Transmission Electric Power Systems." Interconnection Reference. 2026-10-24. https://www.interconnectionreference.com/standards/ieee-2800/.
Interconnection Reference, IEEE Standard for Interconnection and Interoperability of Inverter-Based Resources (IBRs) Interconnecting with Associated Transmission Electric Power Systems (Oct. 24, 2026), https://www.interconnectionreference.com/standards/ieee-2800/.
@misc{etr-standards-ieee-2800,
title = {IEEE Standard for Interconnection and Interoperability of Inverter-Based Resources (IBRs) Interconnecting with Associated Transmission Electric Power Systems},
howpublished = {\url{https://www.interconnectionreference.com/standards/ieee-2800/}},
organization = {Interconnection Reference},
publisher = {Interconnection Reference},
year = {2026},
note = {last substantive change 2026-10-24}
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