How do I install the Interconnection Impact Mitigation skill?

Run npx skillmds@latest add power-agent/interconnection-impact-mitigation in your terminal (requires Node.js), paste this page's agent-chat prompt into Claude, Cursor, or any MCP-connected agent, or download the SKILL.md file and copy it into your agent's skills directory.

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Is Interconnection Impact Mitigation free to use?

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Who published Interconnection Impact Mitigation?

power-agent (@power-agent) published this skill. Their other Agent Skills are listed on their SkillMD profile.

Interconnection Impact Mitigation by power-agent

Name: Interconnection Impact Mitigation
Author: power-agent

Interconnection Impact Mitigation

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 study", "system impact study", "POI", "can we connect this plant at bus Y", "short-circuit ratio", or "weak grid". Walks from steady-state screens through weak-grid and reactive checks to the binding constraint and its mitigation set.

power-agent 9d627ca 2.6 KB Updated Sep 17, 2026

File contents

Interconnection impact mitigation

Start with a defined injection: MW and MVAr capability, the point of interconnection (POI), and the dispatch scenarios to study.

Preferred action order

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.
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.
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.
Verify reactive capability and voltage control: power-factor range and voltage ride-through at the POI against the applicable interconnection requirements.
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.

Working rules

Screen with linear tools (PTDF on the injection) before full N-1 reruns; confirm the short list in AC.
The fault contribution of the new plant changes breaker duty nearby; screen it and route over-duty to short-circuit-mitigation.
Restudy after any material change in plant size, POI, or queue assumptions — interconnection results do not transfer between scenarios.
Separate "needed to connect safely" from "needed to deliver full output" — reliability upgrades and deliverability upgrades have different urgency and cost allocation.

Deliver

The injection studied (MW, POI, scenarios) and the screens it passed.
The binding constraint with numbers (element, loading or voltage, contingency).
The recommended mitigation set and what must be restudied if assumptions move.

---name: interconnection-impact-mitigationdescription: 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 study", "system impact study", "POI", "can we connect this plant at bus Y", "short-circuit ratio", or "weak grid". Walks from steady-state screens through weak-grid and reactive checks to the binding constraint and its mitigation set.---# Interconnection impact mitigationStart with a defined injection: MW and MVAr capability, the point of interconnection (POI), and the dispatch scenarios to study.## Preferred action order1. 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.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.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.4. Verify reactive capability and voltage control: power-factor range and voltage ride-through at the POI against the applicable interconnection requirements.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.## Working rules- Screen with linear tools (PTDF on the injection) before full N-1 reruns; confirm the short list in AC.- The fault contribution of the new plant changes breaker duty nearby; screen it and route over-duty to `short-circuit-mitigation`.- Restudy after any material change in plant size, POI, or queue assumptions — interconnection results do not transfer between scenarios.- Separate "needed to connect safely" from "needed to deliver full output" — reliability upgrades and deliverability upgrades have different urgency and cost allocation.## Deliver- The injection studied (MW, POI, scenarios) and the screens it passed.- The binding constraint with numbers (element, loading or voltage, contingency).- The recommended mitigation set and what must be restudied if assumptions move.

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