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PJM’s Expedited Interconnection Track (EIT)
A fast lane for large capacity resources
June 15, 2026 | White Paper
Why PJM Built a Fast Lane
PJM Interconnection is absorbing the steepest near-term load growth in its history. Hyperscale data centers, electrification, and reshored manufacturing are arriving across the 13-state-plus-D.C. footprint faster than new supply can be studied, agreed, and energized. Even after PJM cleared a long-standing study backlog and reformed its queue into a cluster-based cycle process, the path from interconnection request to commercial operation is still measured in years — a pace that collides with a capacity market signaling tightening reserves.
On June 9, 2026, the Federal Energy Regulatory Commission accepted PJM's Expedited Interconnection Track (EIT)(Docket ER26-1563), a narrow, standalone process designed to move a handful of the largest, most construction-ready capacity projects onto the system quickly. The track is deliberately limited in scope and lifespan: it runs in parallel with the regular Cycle process, takes effect July 31, 2026, and sunsets at the end of 2027. It is not a redesign of the queue — it is a targeted relief valve for near-term resource adequacy.
The One-Paragraph Version
The EIT lets PJM review up to 10 large capacity projects per calendar year, each at least 250 MW of unforced capacity, on an accelerated schedule — roughly 10 months from filing to an executed interconnection agreement and commercial operation within three years. Eligibility hinges on deep readiness: full site control, a verified construction schedule, financial deposits, and a commitment from a relevant state authority to help expedite siting.
What FERC Approved, in Brief
The EIT is defined by a tight set of parameters. Stripped of procedural detail, the mechanism works like this:
- Volume cap: up to 10 interconnection requests accepted per calendar year, on a rolling basis until the annual limit is reached.
- Eligible resources: large new or uprated capacity resources — technology-neutral ("of any kind").
- Size floor: a minimum of 250 MW of unforced capacity (UCAP).
- Speed target: approximately 10 months from a complete filing to an executed Generation Interconnection Agreement (GIA).
- In-service window: commercial operation within three years of application, backed by a verified construction schedule.
- Relationship to the queue: a separate, standalone track that runs alongside — not instead of — the standard Cycle process.
- Lifespan: effective July 31, 2026; the track sunsets December 31, 2027.
The EIT at a Glance
| Parameter | EIT Provision |
|---|---|
| Annual cap | Up to 10 requests per calendar year, accepted on a rolling basis |
| Minimum size | 250 MW unforced capacity (UCAP) |
| Eligible resources | Large new or uprated capacity resources — technology-neutral |
| Filing-to-GIA target | ~10 months |
| Commercial operation | Within three years of application |
| State requirement | Commitment from a relevant state authority to help expedite siting |
| Process type | Standalone, time-limited; parallel to the standard Cycle process |
| Effective date | July 31, 2026 |
| Sunset | December 31, 2027 |
| Docket | FERC Docket No. ER26-1563 (accepted June 9, 2026) |
How the EIT Differs from the Standard Cycle Process
PJM's reformed queue studies projects in clusters — the Cycle process — where many requests are evaluated together so that shared network upgrades and cost responsibility can be allocated across the group. That approach is fairer and far more scalable than the old serial queue, but breadth comes at the cost of speed. The EIT makes the opposite trade. It pulls a small number of qualifying projects out of the cluster cadence and studies them on a compressed, project-specific schedule, accepting tighter eligibility and full cost responsibility in exchange for certainty and speed.
| Dimension | Standard Cycle Process | Expedited Interconnection Track |
|---|---|---|
| Structure | Cluster study; many projects evaluated together | Standalone, project-specific fast track |
| Eligibility | Open to qualifying generation broadly | Narrow: ≥250 MW UCAP, full readiness, state siting commitment |
| Throughput | Large volumes per cycle | Capped at 10 projects per year |
| Timeline | Study turnaround now ~1–2 years | ~10 months to executed GIA; COD within 3 years |
| Cost allocation | Shared/allocated across the cluster | Applicant funds 100% of required network upgrades |
| Duration | Ongoing program | Time-limited; sunsets end of 2027 |
Why "Standalone" Matters
Because EIT projects are studied outside the cluster, they do not wait for a cycle window to open and are not bound to the study clock of neighboring requests. The price of that independence is that the applicant carries the full network-upgrade cost and must clear a much higher readiness bar before the study even begins.
The Eligibility Gate — Who Actually Qualifies
The EIT is intentionally hard to enter. The eligibility rules are engineered to admit only projects that can realistically energize on the promised schedule, and to keep speculative interconnection requests out of a scarce, fast-moving track. A qualifying applicant must satisfy each of the following at the time of application.
Threshold and Readiness Criteria
250 MW UCAP Minimum
The capacity floor ensures the track is reserved for resources that move the resource-adequacy needle materially.
100% Site Control
Full control of the project site must be demonstrated up front — no land still under negotiation.
Verified Construction Schedule
A credible, documented schedule showing commercial operation within three years.
State Siting Commitment
A commitment from a relevant state authority to help expedite siting and permitting — the real linchpin.
Financial Commitments
| Requirement | Detail |
|---|---|
| Study deposit | $500,000 |
| Readiness deposit | $15,000 per MW of capacity (~$3.75M for 250 MW; ~$7.5M for 500 MW) |
| Network upgrades | Applicant funds 100% of required upgrades — no cost sharing across a cluster |
What "Shovel-Ready" Really Means Here
PJM and FERC use "shovel-ready" as shorthand for a specific bundle of evidence: land locked down, a financed and scheduled build, a state willing to clear the permitting path, and deposits large enough that only serious developers apply. The EIT does not reward a good idea — it rewards a project that could break ground on short notice.
The State-Partnership Requirement — the Real Linchpin
Of every EIT criterion, the state siting commitment is the one most likely to decide whether a project is eligible at all. Siting and permitting authority over generation sits with the states, not with PJM or FERC, and that authority is frequently the longest pole in a development schedule. By requiring a state authority to commit to expediting siting before a project enters the track, PJM ensures it is not fast-tracking a resource that will then stall for years in a permitting queue.
In a concurring statement, a sitting FERC commissioner underscored the same point: state public utility commissions, governors' offices, and legislatures are necessary partners in building energy infrastructure at the pace demand now requires. In other words, the EIT is as much a coordination mechanism between PJM and the states as it is an engineering process.
Readiness, Money, and the "Discrimination" Debate
The EIT did not arrive unopposed. The proposal drew protests at FERC from a cross-section of stakeholders — clean-energy trade groups, a state commerce commission, a state board of public utilities, independent power interests, and community organizations among them. A central objection was that the readiness and deposit requirements could favor well-capitalized load-serving entities and incumbent utilities over independent developers.
FERC rejected that line of argument. The Commission found the requirements were tailored to attract genuinely shovel-ready projects and to limit a scarce, expedited track to resources most likely to deliver capacity on time — not to advantage any particular class of applicant. FERC also emphasized that the track is technology-neutral: any resource type that can meet the size, readiness, schedule, and siting tests may apply.
The Result: A High but Uniform Bar
The readiness bar is justified by the program's narrow purpose of meeting near-term resource adequacy needs. A well-capitalized independent developer who has locked down land, secured financing, and built a state relationship clears it just as easily as a utility affiliate — the bar is uniform, not selective.
Where the EIT Sits in PJM's Larger Large-Load Roadmap
The EIT is one piece of a broader response to a supply–demand imbalance driven largely by large-load customers, data centers in particular. PJM's Board of Managers laid out that response in a January 16, 2026 letter implementing a Critical Issues Fast Path (CIFP) process for large loads, and the EIT itself was effectively mandated on a deadline: a December 2025 FERC order addressing co-located load directed PJM to stand up an expedited interconnection process by August 2026.
Alongside the EIT, several companion initiatives are moving through the stakeholder process:
- Connect-and-manage framework. A pathway for new large loads that do not bring their own generation to connect subject to curtailment under defined emergency conditions.
- Long-term load-forecast improvements. Better visibility into where and how fast large loads will materialize.
- Backstop procurement. A mechanism to mitigate a capacity shortfall, including a supplemental backstop auction.
- Holistic market-design review. A wider re-examination of wholesale and capacity market design.
| Initiative | Purpose |
|---|---|
| Expedited Interconnection Track (EIT) | Accelerate a few large, shovel-ready generation projects onto the system |
| Connect-and-manage | Allow large loads without self-supply to connect, subject to emergency curtailment |
| Load-forecast improvements | Sharpen long-term forecasting of large-load growth |
| Backstop procurement / auction | Provide a fallback against near-term capacity shortfalls |
| Market-design review | Re-examine wholesale and capacity market structures holistically |
The Broader Interconnection-Reform Backdrop
The EIT layers on top of a substantial body of interconnection reform PJM has already implemented or secured:
- A reformed, backlog-cleared queue with roughly a one-to-two-year study turnaround.
- A completed transition cycle delivering on the order of 14 GW under signed agreements.
- A prior one-time fast track — the Reliability Resource Initiative — advancing several thousand megawatts across dozens of projects.
- A very large active pipeline: Cycle 1 drew applications on the order of 220 GW of generation.
- New FERC-approved tools: streamlined transfer of Capacity Interconnection Rights, Surplus Interconnection Service, and Provisional Interconnection Service.
- Process automation: AI applied to shorten study processing times.
What a Developer Must Have Ready — the Engineering Checklist
A 10-month clock to an executed GIA is unforgiving. In a standard cycle, a developer can refine models and resolve study findings over a longer horizon; on the EIT, the technical package essentially has to be right when it is filed. From an interconnection-engineering standpoint, a credible EIT candidate should have the following in hand before entering the track:
Power-flow, short-circuit, and stability analyses at the point of interconnection (POI), plus a deliverability assessment consistent with capacity accreditation. These studies must be completed and defensible before filing — there is no time to remediate fundamental findings on a 10-month clock.
For inverter-based resources and BESS, OEM-validated positive-sequence and electromagnetic-transient models, plant-controller representation, and ride-through behavior that will survive utility review. Model rejection is one of the fastest ways to lose months on a compressed track.
The fastest way to lose months on a compressed track is a model that fails utility validation. Inverter-based resources draw scrutiny on ride-through, control interactions, and EMT fidelity. Investing in OEM-validated, interconnection-grade models before filing is the cheapest insurance a 250 MW+ project can buy.
A realistic view of required network upgrades — because the applicant funds 100% of them — so the cost is not a surprise after the study. An unexpected upgrade scope can reshape project economics entirely.
Documented 100% site control and an EPC-backed construction schedule that holds up to the three-year commercial-operation test. The schedule must be credible and documented at the time of application, not aspirational.
An identified state authority prepared to commit to expediting siting and permitting. This is the criterion that most often determines whether a project can enter the track at all — and it must be in place before filing, not in parallel.
Engineering Tip — Front-Load Model Fidelity
The fastest way to lose months on a compressed track is a model that fails utility validation. Inverter-based resources, in particular, draw scrutiny on ride-through, control interactions, and EMT fidelity. Investing in OEM-validated, interconnection-grade models before filing is the cheapest insurance a 250 MW+ project can buy.
Risks and Open Questions
Scarce Slots
With only 10 acceptances per calendar year on a rolling basis, the most prepared developers will claim the openings first.
Sunset Exposure
The track ends December 31, 2027. Projects must enter, execute a GIA, and remain on a schedule that supports the three-year in-service window before the window closes.
Full Upgrade-Cost Responsibility
Funding 100% of network upgrades concentrates cost risk on the applicant; an unexpected upgrade scope can reshape project economics.
Deliverability and Accreditation
Qualifying on size is not the same as delivering accredited capacity; deliverability findings can still constrain a project.
Evolving Large-Load Obligations
Ride-through, stability, and modeling requirements for large loads and IBRs continue to evolve in parallel, and EIT projects must track them.
How Keentel Supports EIT Candidates
Keentel Engineering is a power-systems and grid-interconnection consultancy built for exactly this kind of compressed, high-stakes interconnection work. For developers weighing or pursuing the EIT, our teams in Tampa and Austin assemble the technical package that a 10-month clock demands and that utility review will accept:
Power System Studies (EHV / HV / MV)
Load flow, short circuit, stability, and deliverability — built to interconnection grade before filing.
POI Interconnection Engineering
Point-of-interconnection design, network-upgrade scoping, and study support for the 10-month schedule.
Substation & Transmission-Line Design
From one-lines to construction-ready packages — 30%, 60%, and IFC design milestones.
Utility-Scale Renewables & BESS
OEM-validated dynamic and EMT modeling, plant-controller representation, and ride-through verification.
Owner's Engineer Services
Independent technical oversight across the project lifecycle, from feasibility through commissioning.
NERC O&P Compliance
Aligning the project with applicable reliability obligations — the EIT does not relax NERC requirements.
Ready to Scope Your EIT Filing?
If you are evaluating whether a project can realistically clear the EIT, Keentel can help you scope it.
Frequently Asked Questions
A quick-reference companion to the analysis above. The answers summarize the EIT as accepted by FERC in June 2026; program details are administered by PJM and remain subject to PJM's tariff and FERC orders.
Start the Conversation
Keentel carries the technical weight alongside your EIT filing — from first study to executed GIA.
About Keentel Engineering & Non-Affiliation Notice
Who We Are
Keentel Engineering is a power-systems and grid-interconnection engineering firm serving developers, utilities, and large-load customers. Services span power system design and studies (EHV/HV/MV), POI interconnection engineering (30%, 60%, IFC design), substation and transmission-line design, utility-scale renewables and BESS engineering, owner's-engineer services, and NERC operations-and-planning compliance.
Our Offices
Tampa (HQ):
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Austin Office:
5900 Balcones Drive STE 100, Austin, TX 78731, USA
Sacramento Office:
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Baltimore Office:
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Non-Affiliation & Independence
Keentel Engineering is an independent engineering firm and is not affiliated with, endorsed by, or sponsored by PJM Interconnection, L.L.C., the Federal Energy Regulatory Commission (FERC), the U.S. Department of Energy, or any other regulatory body, regional transmission organization, utility, equipment manufacturer, or trade organization referenced in this document. All names, marks, programs, dockets, and standards referenced are the property of their respective owners and are used here for identification, commentary, and educational purposes only.
© 1995–2026 Keentel Engineering. All rights reserved.
Sources & References
Core program facts — the 10-projects-per-year cap, the 250 MW unforced-capacity floor, the ~10-month interconnection-agreement target, the three-year operation window, the state siting commitment, the July 31 effective date and end-of-2027 sunset, and PJM's related large-load initiatives — are drawn from the source briefing provided. The public sources below informed the supplementary figures (docket number and approval date, the study and readiness deposits, the site-control and network-upgrade provisions, the protest record, and procedural background).
- PJM Interconnection, L.L.C. — Expedited Interconnection Track tariff filing, FERC Docket No. ER26-1563 (primary source: 100% site control, $500,000 study deposit, $15,000/MW readiness fee, eligibility criteria).
pjm.com — ER26-1563 Filing → - Federal Energy Regulatory Commission — Commissioner Rosner concurrence to the order accepting PJM's EIT, Docket ER26-1563 (state-siting emphasis).
ferc.gov — Commissioner Rosner Concurrence → - Utility Dive — "FERC approves PJM fast-track review for 'shovel-ready' power projects" (June 9, 2026 approval; protest roster; rejection of the discrimination concern).
utilitydive.com → - DataCenterDynamics — "FERC approves PJM fast-track interconnection for large power projects" (protest roster; program scope and timing).
datacenterdynamics.com → - PJM Inside Lines — "PJM Files Price Collar, Expedited Interconnection as Part of Large Load Plan" (study and readiness deposits; 100% of network upgrades).
insidelines.pjm.com → - Troutman Pepper — Washington Energy Report — "FERC Approves PJM's Tariff Revisions for an Expedited Interconnection Track" (June 2026: site control, verified construction schedule, deposits, docket).
troutmanenergyreport.com → - Troutman Pepper — Washington Energy Report — "PJM Proposes Expedited Generator Interconnection Track" (March 2026: Dec. 18, 2025 co-located-load order directing EIT implementation by August 2026).
troutmanenergyreport.com (March 2026) → - Renewable Energy World — "Can PJM's new 'fast track' process accelerate interconnection?" (deposits; site-control scope; capacity-deficiency context).
renewableenergyworld.com → - MLQ News — "FERC Approves PJM Expedited Interconnection Track for Large Power Projects Through 2027" (docket, deposits).
mlq.ai → - White & Case LLP — "PJM proposes to carve out new services for co-located data centers" (Dec. 18, 2025 Show Cause Order; Jan. 16, 2026 PJM Board CIFP letter).
whitecase.com →
* Links were active at the time of writing; URLs and program details may change as PJM and FERC update the record.
About the Author:
Sonny Patel P.E. EC
IEEE Senior Member
In 1995, Sandip (Sonny) R. Patel earned his Electrical Engineering degree from the University of Illinois, specializing in Electrical Engineering . But degrees don’t build legacies—action does. For three decades, he’s been shaping the future of engineering, not just as a licensed Professional Engineer across multiple states (Florida, California, New York, West Virginia, and Minnesota), but as a doer. A builder. A leader. Not just an engineer. A Licensed Electrical Contractor in Florida with an Unlimited EC license. Not just an executive. The founder and CEO of KEENTEL LLC—where expertise meets execution. Three decades. Multiple states. Endless impact.
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About the Author:
Sonny Patel P.E. EC
IEEE Senior Member
In 1995, Sandip (Sonny) R. Patel earned his Electrical Engineering degree from the University of Illinois, specializing in Electrical Engineering . But degrees don’t build legacies—action does. For three decades, he’s been shaping the future of engineering, not just as a licensed Professional Engineer across multiple states (Florida, California, New York, West Virginia, and Minnesota), but as a doer. A builder. A leader. Not just an engineer. A Licensed Electrical Contractor in Florida with an Unlimited EC license. Not just an executive. The founder and CEO of KEENTEL LLC—where expertise meets execution. Three decades. Multiple states. Endless impact.
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