Inverter-based DER Ride Through and IEEE Standard 1547

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Inverter-based DER Ride Through and IEEE Standard 1547 Andrew Levitt Applied Innovation August 9, 2018

Cumulative Non-wholesale Solar MW More DER deployment in PJM Ride Through Ride Through : generator must remain connected for ~seconds in problem events. Required for transmission-connected generators. DER have opposite requirement: shall trip during problem events. More DER Ride Through added to complement shall trip requirement. 2

DER and Shall Trip Distributed Energy Resources are connected to radial distribution To preserve existing utility protection schemes, safety of hotwork lineman, and avoid islanding conditions that could damage customer and utility equipment DER are configured to trip fairly quickly under adverse conditions: under/overvoltage and under/overfrequency. E.g., within 160 milliseconds at 50% per unit voltage. 3

Voltage (percent of nominal) 0% 50% 100% DER and Shall Trip 160 ms 88% 50% 2s 0.01 0.10 1.00 10.00 Time (seconds on log scale) 4

Transmission voltage (per unit) Could Wide Area Undervoltage in PJM Persist to 160 ms or 2s trip point? Multiphase transmission faults wide area undervoltage Fault-Induced Delayed Voltage Recovery > 2 s 15s FIDVR 1992 PECO line-line-ground fault* 40 miles ~ 1 GW non-wholesale solar ~ 6 GW load Delayed transmission fault clearing 200 1,000 ms Reclosing and trip timing accumulation * EPRI/NERC FORUM ON VOLTAGE STABILITY at 2/15-24 (Breckenridge, Colo., Sept. 1992) (EPRI TR-102222). 5

PJM Simulation of Benefit From Ride Through Many DER Ride Through: OFF No DER Many DER Ride Through: ON LOAD AT RISK FROM GRID EVENT 2,600 MW 1,600 MW 750 MW Grid event worsened Grid event improved Blue, teal, and green are abnormally low voltage, which puts load at risk (quantified as load exposed to < 85% nominal voltage) 6

WHAT S THE POLICY SOLUTION? 7

Few Wholesale DER Have FERC Interconnection Wholesale DER w/ state interconnection Retail DER = state interconnection Wholesale DER w/ FERC interconnection Retail solar DER = state interconnection Most DER = local jurisdiction, PJM has no interconnection authority. Minority of wholesale DER = FERC jurisdiction. In all cases: distribution utility is primary technical/utility stakeholder. Safety of lineworkers, others is priority. 8

The Role of IEEE 1547-2018 and Ride Through State law Federal law State regulations IEEE 1547 standard for DER interconnection Utility technical requirements PJM Manual 14a 1547-2018 ed.: Ride through requirements 1547-2018 ed.: 1547-2018 ed.: NEW! 3 GREAT FLAVORS! Trip requirements Trip requirements Harmonics Voltage: Unity Power Factor Frequency Anti-islanding etc 9

PJM Stakeholder Effort for DER Ride Through Feb 28: Preliminary trial workshop w/ 4 utilities (T and D) Aug 9: 1st read of problem statement PJM Planning Committee Oct 1-2: Stakeholder Technical Workshop 2018-2019: Task Force discussions 2019: Manual Language and final documentation of Ride Through and Trip parameters PJM Rules Distribution Utility Discussions under Local Regulation 10

OBJECTIVE: PJM-wide consensus across T+D on a preferred 1547-2018 profile (e.g., Category II with specified trip adjustments and addition of momentary cessation) If necessary: 2 preferred profiles: e.g., a Category II and a Category III Two deliverables for technical profile: a policy guide for state/local regulators, and PJM manual language changes. 11

SCOPE Ride through capability and trip parameters only. Not voltage regulation or communications, etc For generators: Inverter-based Connected to radial distribution Not connected to BPS or meshed subtransmission. 12

TECHNICAL APPENDIX 13

Could 60.5 or 59.8 Hz frequency trip of DER impact PJM? Catastrophic islanding of interconnection Black start Really Really Big Gen Loss PJM in August 2003 Loss of 4,500 MW in Eastern Interconnection in August 2007 14

Changes to Straw Proposal for DER Voltage Ride Through Pre-workshop: IEEE 1547-2018 Category II with default settings Post-workshop modifications: a) UV2 increased 1.1 seconds for delayed transmission fault clearing. b) UV1 time decreased 2 5 seconds and volts increased 88% for arc-flash and recloser concerns. c) Permissive Operation range and severe low voltage may trip range is specified to Mandatory Operation for V > 0.50 and Momentary Cessation for V < 0.50. UV2? UV1 15

DYNAMIC BEHAVIOR OF INVERTER-BASED GENERATORS MATTERS

Frequency [Hz] 49.7 50.3 50.9 51.5 Europe 2006 Ride-Through (Frequency) Reconnection (Uncontrolled) 50.2 Hz ~9 GW Wind 10min 20min 30min 40min 50min Time (minutes after 10PM) 40% Generation Loss Wind 30% DER Combined Heat & Power 17

Wind Farm Output [MW] 0 500 1000 South Australia 2016 Ride-Through (# Attempts) Power Reduction Inertia (Island) 08s. 10s. 12s. 14s. Time (seconds after 4:18 PM) Total Wind MW Unexpected Power Reduction Expected Power Reduction 18

Solar Output [MW] California 2016 57 Hz Trip (phase jump) Improper Momentary Cessation (Voltage 0.9-1.1) Ramping (2 min vs 5 sec) ~10 GW Peak PV 1200 MW 47% of Load Wild fires: 13 faults 500 kv. 19