interconnection-impact-mitigation

Name: interconnection-impact-mitigation
Author: Power-Agent

56stars12forks

How to install interconnection-impact-mitigation?

power-agent/powerskills/interconnection-impact-mitigation

$npx -y skills add Power-Agent/PowerSkills --skill interconnection-impact-mitigation

Installs into the current project.

Summary

Senior power-engineer playbook for screening and mitigating the grid impact of a new generator, storage, or large-load interconnection. Use whenever the question is whether X MW can connect at a point of interconnection and what upgrades it needs. Triggers on "interconnection stu

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SKILL.md

1	# Interconnection impact mitigation
2
3	Start with a defined injection: MW and MVAr capability, the point of interconnection (POI), and the dispatch scenarios to study.
4
5	## Preferred action order
6	1. Pin down the study scenario set: peak and off-peak cases, high-renewable dispatch, and the prior-queued projects that must be modeled as in-service.
7	2. Run steady-state screens with the addition: base case and N-1 power flow, thermal loading and voltage screens around the POI. Route violations to `thermal-overload-mitigation` and `voltage-violation-mitigation` for the corrective toolkit.
8	3. Check weak-grid risk for inverter-based resources: short-circuit ratio at the POI. Low SCR (roughly below 3, critical below 2) flags control-interaction and stability risk — consider grid-forming controls, synchronous condensers, or POI relocation.
9	4. Verify reactive capability and voltage control: power-factor range and voltage ride-through at the POI against the applicable interconnection requirements.
10	5. Identify the binding constraint and assemble the mitigation set: network upgrades, an output-limitation or curtailment agreement, reactive devices, or phased interconnection — sized to the smallest set that clears the binding screen.
11
12	## Working rules
13	- Screen with linear tools (PTDF on the injection) before full N-1 reruns; confirm the short list in AC.
14	- The fault contribution of the new plant changes breaker duty nearby; screen it and route over-duty to `short-circuit-mitigation`.
15	- Restudy after any material change in plant size, POI, or queue assumptions — interconnection results do not transfer between scenarios.
16	- Separate "needed to connect safely" from "needed to deliver full output" — reliability upgrades and deliverability upgrades have different urgency and cost allocation.
17
18	## Deliver
19	- The injection studied (MW, POI, scenarios) and the screens it passed.
20	- The binding constraint with numbers (element, loading or voltage, contingency).
21	- The recommended mitigation set and what must be restudied if assumptions move.

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interconnection-impact-mitigation

56stars12forks

View on GitHub

How to install interconnection-impact-mitigation?

power-agent/powerskills/interconnection-impact-mitigation

$npx -y skills add Power-Agent/PowerSkills --skill interconnection-impact-mitigation

Installs into the current project.

Summary

Files · 1

View on GitHub

SKILL.md

1	# Interconnection impact mitigation
2
3	Start with a defined injection: MW and MVAr capability, the point of interconnection (POI), and the dispatch scenarios to study.
4
5	## Preferred action order
6	1. Pin down the study scenario set: peak and off-peak cases, high-renewable dispatch, and the prior-queued projects that must be modeled as in-service.
7	2. Run steady-state screens with the addition: base case and N-1 power flow, thermal loading and voltage screens around the POI. Route violations to `thermal-overload-mitigation` and `voltage-violation-mitigation` for the corrective toolkit.
8	3. Check weak-grid risk for inverter-based resources: short-circuit ratio at the POI. Low SCR (roughly below 3, critical below 2) flags control-interaction and stability risk — consider grid-forming controls, synchronous condensers, or POI relocation.
9	4. Verify reactive capability and voltage control: power-factor range and voltage ride-through at the POI against the applicable interconnection requirements.
10	5. Identify the binding constraint and assemble the mitigation set: network upgrades, an output-limitation or curtailment agreement, reactive devices, or phased interconnection — sized to the smallest set that clears the binding screen.
11
12	## Working rules
13	- Screen with linear tools (PTDF on the injection) before full N-1 reruns; confirm the short list in AC.
14	- The fault contribution of the new plant changes breaker duty nearby; screen it and route over-duty to `short-circuit-mitigation`.
15	- Restudy after any material change in plant size, POI, or queue assumptions — interconnection results do not transfer between scenarios.
16	- Separate "needed to connect safely" from "needed to deliver full output" — reliability upgrades and deliverability upgrades have different urgency and cost allocation.
17
18	## Deliver
19	- The injection studied (MW, POI, scenarios) and the screens it passed.
20	- The binding constraint with numbers (element, loading or voltage, contingency).
21	- The recommended mitigation set and what must be restudied if assumptions move.

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6 picks

Type