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New York Data Center Intel
36 verified signals across 1 counties tracked daily.
New York · Construction & power moves · 4
full tracker →Land, power, and interconnection moves across New York — each traced to primary filings.
Counties
| County | Last 7d | Total |
|---|---|---|
| Dutchess County | 0 | 1 |
Top JUST IN — New York
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2025-2044 Outlook Explores Pathways to a Reliable, Cleaner Grid
Source: NYISO · Aug 07, 2026NYISO’s August 7, 2026 “2025-2044 Outlook Explores Pathways to a Reliable, Cleaner Grid” says New York demand is expected to rise over the next two decades, driven by “electrification policies and the emergence of new large loads,” and that “Transmission capability increasingly determines whether new resources can serve load.” NYISO also says the grid will need more transfer capability, including to “Increase transfer capability across the Central East transmission interface” and “Support zero-emissions generation development in Northern New York with bulk transmission upgrades to enable energy deliverability from this region.”
Backed by 1 primary filing — sign in or book a call to see all sources.
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Large Load Facility Discussion: Data Submission Requirements and Forecasting Method
Source: NYISO · Aug 26, 2022NYISO’s Aug. 26, 2022 Load Forecasting Task Force presentation proposes changes to how large loads are counted in peak forecasting: the definition of Large Load Facilities would be expanded for ICAP forecasting to include 40 MW or more below 115 kV in a Large Transmission District and 20 MW or more below 115 kV in a Small Transmission District, while the current interconnection threshold remains “Greater than 10 MW” at 115 kV or above or “80 MW or more” below 115 kV. NYISO also says “The sum of the forecasted large loads will be computed for each Transmission District and added to its ICAP Market Forecast” and that “The Transmission District Regional Load Growth Factor (RLGF) will not be applied to load changes from the Large Load Facilities.”
Backed by 1 primary filing — sign in or book a call to see all sources.
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October 2022 Update of Load Forecasting Manual: Large Load Interconnection Reporting and Forecasting
Source: NYISO · Oct 21, 2022NYISO’s October 21, 2022 Load Forecasting Manual update says large-load interconnections can materially change district forecasts: “Changes in the timing of the construction and ramp-up period of Large Load Facilities that are Interconnecting on the system have the potential to significantly alter the load forecast within a Transmission District” (NYISO). It also adds new reporting rules, requiring that “Large Load Facility forecast reports shall include the project status and forecasted load impacts” and that, after an SIS, the Connecting and Affected TOs submit reports quarterly or when forecasts change. NYISO further says “The sum of projected load changes reported for Large Load Facilities will be added to each TOs forecasted peak value as applicable.”
Backed by 1 primary filing — sign in or book a call to see all sources.
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Transmission Expansion and Interconnection Manual
Source: New York Independent System OperatorNYISO’s 2019 Transmission Expansion and Interconnection Manual explains that the NYISO OATT covers interconnection of new and modified generation, transmission, and load facilities in New York, and that the process includes queue assignment for study requests and interconnection requests. NYISO states that it “adds the request to its list of Interconnection Requests and Transmission Projects (also known as the ‘NYISO Interconnection Queue’) with a queue position based on the date of receipt,” and that new LFIRs and TIAs are also assigned queue position based on receipt. The manual is policy guidance rather than a project-specific filing.
Backed by 1 primary filing — sign in or book a call to see all sources.
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Forecasts for Reliability Planning Studies
Source: NYISO · May 29, 2025NYISO’s May 29, 2025 “Forecasts for Reliability Planning Studies” says large loads are a meaningful component of future New York demand, with “Projected Large Load impacts from existing and future interconnection of Large Loads” included in the light-load forecast and “Large loads are assumed to contribute over 2,000 MW to the Light Load by 2035.” NYISO also says these reliability studies incorporate EV charging, building electrification, and BTM storage charging into future load shapes.
Backed by 1 primary filing — sign in or book a call to see all sources.
Recent New York data center news
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Targeted Pressure: How Chinese Manufacturing Competition Impacts US States
The Information Technology and Innovation Foundation (ITIF) has published a report finding Chinese industrial policy is reshaping global manufacturing and harming industries across every U.S. state.
- Main finding & method: The ITIF report (June 1, 2026) analyzes one “national power industry” per state using County Business Patterns employment data, HS/SITC export proxies, and global market-share series to conclude that state-backed Chinese subsidies, export pushes, and overcapacity are driving down prices and pressuring U.S. producers in sectors such as semiconductors, batteries, aircraft, and fabricated metals.
- Key facts, numbers, and timelines:China plans ~$150 billion in semiconductor investment through 2030 vs. $52 billion under the U.S. CHIPS funding; the report cites $63.3 billion Chinese semiconductor spending in H1 2025, TSMC’s $165 billion U.S. investment announcement, GE Appliances’ $490 million Appliance Park investment (2025), and state/national export shares and HS-code trade series used throughout the analyses.
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ESG Today: Week in Review
ESG Today published a weekly roundup of ESG headlines summarizing announcements and deals across sustainability, finance, reporting and clean-energy projects.
- Main roundup content: The newsletter highlights multiple concrete actions, including IPX Power securing $4.95 billion (reported in the roundup as $5 billion) to build a large California solar & storage project, Enbridge developing a $1.2 billion solar & storage project to power Meta data centers, EU Commission awarding €400 million to industrial heat decarbonization projects, and Acelen Renewables securing $1.5 billion to build a billion-liter SAF project in Brazil. It also reports corporate and regulatory moves such as the SEC launching a process to rescind corporate climate reporting rules and McDonald’s missing its 2030 value-chain decarbonization target.
- Additional details & background: The roundup lists multiple fundraises and M&A: Thea Energy $100 million, Focused Energy $240 million, Caudal Energy $5.6 million, P2 Science $23 million, D-CRBN $20 million, and DigitalBridge’s $1 billion acquisition of ArcLight. It also notes policy and reporting developments (IFRS and GRI collaboration, TISFD reporting framework, New York law delaying state climate goals) and sustainability flows data (Morningstar: sustainable fund flows turned positive in Q1 2026).
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The Breaking Points: Water Is the New Constraint for AI Data Centers
Data Center Knowledge reports that water infrastructure constraints are emerging as a major limit on AI data center expansion.
- Main finding: Large AI data center proposals are requesting multi‑MGD water capacities (example: a Virginia campus requested up to 2 MGD initially, with potential future demand up to 8 MGD) and explicitly require continuous evaporative cooling for uninterrupted operations; these projected demands often exceed municipal water and wastewater planning assumptions.
- Background and specifics: Researchers’ paper “Small Bottle, Big Pipe” estimates U.S. data centers could require 697 million to 1.45 billion gallons/day of new water capacity through 2030; Texas’ draft 2027 State Water Plan estimates roughly $174 billion in water infrastructure projects may be needed over the next 50 years to meet growing AI demand and related upgrades (reservoirs, treatment, reclaimed-water networks).
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Tech Giants Are ‘Gobbling Up’ Grid Capacity, Consumers Are Getting the Bill
Democratic lawmakers and policy officials warned that ratepayers, not technology companies, are bearing the cost of energy infrastructure built to power data centers.
- Main announcement: Democratic lawmakers and state officials (including West Virginia delegate Kayla Young and Sen. Ron Wyden) warned that ratepayers are shouldering costs for generation, transmission, and data center power infrastructure; Monitoring Analytics found $9.3 billion (70%) of increased electricity costs in the mid-Atlantic last year resulted from data center demand.
- Background and details:Dominion Energy has proposed a 14% residential rate increase in Virginia for 2026 citing data center and AI-driven demand; West Virginia electric rates have risen 73% per kilowatt hour over the last 10 years. Rep. Paul Tonko introduced a House bill directing federal regulators to require data center developers to cover infrastructure costs rather than shifting them to residential and small business ratepayers.
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US energy storage installations hit Q1 record, up 32% year over year: SEIA
SEIA reported record 9.7 GWh of battery energy storage installed in Q1 2026.
- Main announcement: SEIA said the U.S. installed 9.7 GWh of battery energy storage in Q1 2026 (a 32% YoY increase), with commercial & industrial 648 MWh, utility-scale 1.5 GW / 7.8 GWh, and residential 515 MWh; Benchmark Mineral Intelligence (for SEIA) forecasts 613 GWh of U.S. storage deployment by 2030.
- Background and details: SEIA and Benchmark highlighted data centers as a major driver (example: Meta + Enbridge will build 365 MW solar colocated with 200 MW / 1.6 GWh of Tesla batteries to support a Cheyenne, WY data center with 8-hour discharge capability); SEIA also flagged 101 GW of clean projects under political threat and said 36% of projects due by 2030 could be affected; 13 states have storage targets and cumulative deployment leaders include California 60.6 GWh, Texas 29.2 GWh, Arizona 20.2 GWh.
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How a Coal Plant in Buffalo Became TeraWulf’s 500 MW AI Campus
TeraWulf is developing the Lake Mariner “AI factory” campus on a retired coal plant site near Buffalo, delivering 500 MW today and planning to scale to 750 MW.
- Main announcement: TeraWulf is building the Lake Mariner AI factory across roughly 180 acres of the former coal plant site, currently delivering 500 MW across four data halls with plans to scale to 750 MW; tenants include Core42 and Fluidstack (the latter hosts compute tied to Google AI workloads), and the fourth hall CB4 is expected to be energized by July 2026.
- Background and technical details:Schneider Electric and Motivair have deployed more than $290 million in AI infrastructure and liquid-cooling systems at the site; the campus uses closed-loop glycol cooling with 144 RDHx units in one section and outdoor spray cooling used <5% of the year; legacy intake to Lake Ontario capacity is ~275 million gallons; electrical architecture includes 450 UPS systems (1–1.5 MW each) and reliance on Niagara hydropower (~90% zero-carbon).
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TeraWulf’s Lake Mariner Campus: How a Retired Coal Plant Became an AI Factory Prototype
TeraWulf has announced the rapid deployment and integration of power-and-cooling infrastructure at its Lake Mariner campus in Barker, New York.
- Main announcement: TeraWulf, in partnership with Schneider Electric and Motivair, compressed deployment of over $290 million in mission-critical power and cooling infrastructure into a twelve-month window to repurpose the retired Lake Mariner coal plant into an AI/HPC campus designed to support up to 750 MW of future load; deployments include Galaxy VX UPS systems, lithium-ion battery systems, Motivair CDUs (105 kW to 2.5 MW MCDU-70), ChilledDoor rear-door heat exchangers, NetShelter racks, and EcoStruxure IT monitoring.
- Background and specifics: The project leverages existing industrial transmission assets (dual 345-kV lines, nearby Niagara hydroelectric and imported Quebec hydropower), long-term tenant commitments from Core42 and Fluidstack (backed by Google), and a brownfield, energy-first strategy focused on sites with pre-existing transmission/substation infrastructure to avoid multiyear interconnection timelines.
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United States $193 Billion Semiconductor Company Analog Devices Buys United States Power Delivery Performance Company Empower Semiconductor for $1.5 Billion in All-Cash Deal, Empower Semiconductor Founded in 2014 by Tim Phillips, Gene Sheridan & David Lidsky
Analog Devices has announced it will acquire Empower Semiconductor for $1.5 billion in an all-cash deal (announcement dated 25th May 2026, dateline Hong Kong / New York City).
- Main announcement: Analog Devices has agreed to buy Empower Semiconductor for $1.5 billion in an all-cash transaction; the article is an announcement of the acquisition (no closing date or integration timeline provided).
- Background and details:Empower Semiconductor, founded in 2014 by Tim Phillips, Gene Sheridan, and David Lidsky, provides integrated voltage regulators and power delivery technology aimed at reducing the energy footprint and total cost of ownership of data centers and supporting AI processors; Analog Devices is described with a $193 billion market value and reported revenue of more than $11 billion in FY25.
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2026 Policy Updates from Key Investors
Several key institutional investors have updated their 2026 voting policies, as summarized in a Georgeson memorandum authored by Rajeev Kumar, Daniel Chang, and Meighan McGowan.
- Main announcement: Several institutional investors (Capital Group, Geode, GSAM, Dodge & Cox, TRPA, and NYSCRF) have revised voting policies across topics including reincorporation, say-on-pay frequency, equity plans, director overboarding, board diversity and tenure, company engagement, and emerging shareholder proposals on data center growth and AI. Specific, concrete policy changes include TRPA increasing its overboarding concern thresholds (from directors >5 boards to >6 boards and public-company CEOs from >1 additional board to >2 additional boards), GSAM moving away from a fixed 50% performance-based LTI threshold to a more flexible standard, Geode adding burn rate as a voting criterion for equity plans (with an exception for bankruptcy/going-concern situations), and NYSCRF adding new sections requiring disclosures and management of Environmental Risks of Data Center Growth and Responsible AI Governance.
- Background & details: The updates largely move investors from blanket deference to case-by-case evaluations (notably on reincorporations), tighten scrutiny where shareholder rights could be materially diminished, and expand assessments of board composition to include skills, experience, refreshment practices, and governance provisions. NYSCRF expects companies to assess, disclose, and regularly update management of data-center-related environmental risks (GHG emissions, water stress, grid strain) and to implement board accountability, transparency and explainability, and robust risk management for AI; GSAM expanded its engagement framework to seek company responses where management proposals receive significant dissent.
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How utilities can ensure grid readiness: A holistic framework from NEOS Advisory
NEOS Advisory has developed an integrated framework for utility readiness.
- Main announcement: NEOS Advisory has published an integrated, iterative utility readiness framework that connects resource adequacy, hosting capacity, network master planning, digitalization, and investment planning into a single strategic capability. The article cites key factual metrics: the IEA forecasts global electricity demand growth of 3.6% p.a. between 2026–2030, data center electricity consumption projected to ~945 TWh by 2030, ~3,000 GW of renewable projects waiting in grid connection queues (1,500 GW in advanced stages), and typical grid build lead times of 5–15 years vs 1–5 years for wind/solar. It also outlines a seven-phase implementation roadmap and highlights Phase 2 (integrated planning model) and Phase 6 (digital implementation) as specific implementation risk points.
- Context and details: The article is an explanatory long-read (thought leadership / guidance) drawing on global regulatory and technical references (NERC, FERC Order 2023, IEA, NREL, ARENA, Ofgem, EU Electricity Market Reform Regulation 2024/1747). It describes concrete program elements (shared spatial dataset/GIS, ADMS/DERMS/AMI/SCADA stacks, dynamic operating envelopes, grid-enhancing technologies, scenario-based master planning) and prescribes operational requirements and sequencing (data quality first, parallel digitalization, workforce and supply-chain planning).