ParcoData builds and powers its own nuclear data center campuses — generating clean power behind the meter, end to end. No grid queue. No water draw. No community fight. Power and shell, delivered on your timeline.
Three bottlenecks are blocking the AI buildout — and none of them are about money. The grid is full, the water fight is local, and the silicon has outrun air cooling.
To connect a new large facility in most U.S. regions. The interconnection queue — not capex — is the constraint.
Gallons per day consumed by conventional cooling — increasingly blocked by local communities and moratorium ordinances.
GB200 NVL72 racks land at 4× the ~30 kW practical ceiling of air cooling. The math forces liquid.
ParcoData builds and powers its own campuses — behind the meter, end to end. The same constraints that broke the conventional data-center model are the design inputs to ours.
100% behind-the-meter. No interconnection, no IEEE 1547 dependency — the variable that stops everyone else is designed out of the architecture.
Sealed-loop reactors paired with dry, air-rejection cooling. No evaporative draw at the source — so the community water fight never starts.
The campus operates without depending on the public grid, public water, or future regulatory change. Sovereign, steady, 24/7.
A vertically integrated campus where five structurally uncorrelated revenue lines share the same nuclear-power substrate. Several are active before the first reactor is energized — the cooling line is selling in the market today.
Powered shell and white space leased to hyperscaler and enterprise tenants across the six-metro footprint. Long-tenor leases anchored on Tier-1 proximity, under 2 ms.
Behind-the-meter power contracts at the same campuses — take-or-pay with hyperscalers and enterprise end-users. Sovereign power, no grid wait, no utility dependency.
Single-phase chassis-immersion cooling, inside ParcoData campuses and sold to the open market in the US, Europe, the Middle East, and India. In market today, pre-reactor.
An eight-isotope portfolio produced in the reactor irradiation channels — a second product off the same atom, in parallel with electricity and with no derating of electrical output.
Residual 60°C heat off the reactors and cooling exchangers feeds carbon capture and microalgae cultivation — a carbon-positive operating footprint.
Two independent, near-term reactor architectures — separate fuel, vendors, and EPC. If one leg slips, the other still delivers the power. Both fueled by standard low-enriched uranium (LEU) — no first-of-a-kind fuel bet.
Terra Innovatum · Nasdaq: NKLR
A container-scale (2.4 × 2.4 × 6.5 m), factory-assembled micro-modular reactor built from existing components and fueled by LEU. ~1 MWe per unit, 15-year operating cycle, five independent shutdown systems. Helium-cooled with dry heat rejection — no surface water draw. No public exclusion zone, so it can sit at the campus fence line. Targeting first energy in 2028.
Deep Fission Gravity Nuclear Reactor™
A pressurized-water reactor installed roughly one mile underground in a 30-inch borehole — geological containment, near-zero surface footprint, earthquake-shielded by depth. Hydrostatic pressure from gravity (~160 atm), not engineered pressure vessels. Sealed closed-loop, no surface water draw. 15 MWe per unit, scaling to ~1.5 GWe per site with independent fuel and EPC.
The safety case rests on fundamental physics, not engineered active systems. That is what makes fence-line siting possible — and removes the exclusion zone that forces conventional nuclear far from the load.
Single-phase chassis immersion that drops into a standard 19″ rack. On a fixed power budget, lower cooling overhead converts directly into more IT capacity — which, in a power-constrained world, is revenue.
Air cooling at PUE 1.35 spends 35 MW of a 135 MW budget on cooling. LiquidCool at PUE 1.02 spends about 3 MW — freeing roughly 32 MW per 100 MW of IT load. Fewer racks, fewer thermally-driven failures, any hardware.
~90% less cooling power than air-cooled at scale — independently validated by NREL, Lawrence Berkeley, Intel, OCP and Solar Impulse.
The same reactors that power the campus irradiate target materials to produce medical radioisotopes — in parallel with electricity, with no derating of electrical output. A domestic source for a supply chain the world depends on aging foreign reactors to provide.
Medical isotope supply is structurally fragile: a handful of decades-old research reactors abroad and long, brittle logistics chains for materials that decay in transit. Producing them at the campus — near the load and near the patient — turns a vulnerability into a reliable, domestic channel.
Produced from central irradiation channels, parallel to electricity:
A therapy-weighted portfolio — Lu-177 and Y-90 anchor targeted cancer treatment, alongside I-131, Sm-153, Ho-166 and more.
Residual 60°C heat from the reactors and cooling exchangers is not waste — it feeds carbon capture and microalgae cultivation. The campus is engineered to remove more carbon than it emits, with industrial-grade heat reuse on top.
Industrial-grade waste heat delivered to district heating, process water and greenhouses — up to 95% recovery.
Waste-heat-driven capture integrated with the campus. Eligible under the 45Q tax credit and voluntary carbon markets.
Algae cultivated on residual heat fixes carbon and yields biomass feedstock and specialty ingredients.
Zero water draw and heat reuse directly address tightening carbon and water disclosure requirements.
Site selection is the single highest-leverage decision in the development cycle. A proprietary AI engine grades any parcel against an 18-point matrix — power, zoning, water, terrain, fiber, nuclear permittability — and returns a power-and-shell verdict in minutes, not months.
Every parcel scored across power, scarcity, zoning, opposition risk, nuclear fatal-flaw checks, water, terrain and fiber latency.
SOLO and Deep Fission paths graded independently, each with its own buildability verdict.
Hard gates on net buildable acreage, terrain and zoning auto-reject non-viable sites before capital is committed.
A growing pipeline triaged to date; the Nevada anchor cleared the same screen as the top benchmark site.
A Nevada anchor plus six key state locations adjacent to the country's production and demand centers — connected to the major exchanges by owned private fiber superloops, under 2 ms. Behind-the-meter, every one: no grid queue, no interconnection wait, no utility dependency.
Nevada anchor permitting underway; six-state sites under option. EPC scope-of-work defined with Jacobs.
Jacobs-led EPC executes shell and power on the anchor. Reactor fabrication runs in parallel. NRC pre-application advances.
400 MW energized on the anchor campus. First reactor units commissioned. First isotope shipments to channel.
Full footprint built out. Steady-state operations. Five revenue lines active across the six metros.
A campus engineered for gigawatt-scale AI training, dense inference, sovereign compute and HPC — with the one thing you cannot buy from the grid: certainty of power, on your timeline.
Long-tenor contracts supplying clean electricity at the campus — certainty you can't get from the grid, wind, or solar.
On-site generation skips the multi-year interconnection queue entirely. Speed-to-power compresses revenue.
~10,000 acres under option across six metros, with planned private fiber to Ashburn, Silicon Valley, NYC and other hubs.
Reactor capacity reserved at 4 GW; campuses scale from first power to full build as your load grows.
A premier global EPC contractor and two independent near-term reactor partners, paired with the densest cooling technology in the industry.
ParcoData is a developer of nuclear-powered, Island-Mode data center campuses, headquartered in Miami Beach, Florida. The leadership team has executed multiple public listings and operating exits across science, finance, and large-scale infrastructure.
30+ years across science, technology, and finance. PhD in Theoretical Physics. Former Senior Partner at EY (10 yrs) and Co-CEO of Value Team (5,000+ professionals). Two fintech exits as founder. Commercial pilot.
25+ years in investment banking, venture capital, and private equity. Led the European team at Ladenburg Thalmann (New York). Co-founded State Capital — five offices, $1B+ annual transaction volume. $10B+ in executed deals.
Chartered Accountant with 20 years advising private equity and private companies, from early-stage startups to Fortune 500. Former Big Four capital-markets leader. SEC reporting; US GAAP and IFRS specialist.
Entrepreneur and operator, 20 years across real estate technology and capital markets. Two proptech exits as founder/CEO. Former FX derivatives trader at Lehman Brothers and investment professional at Pharo Management. CFA charterholder.
We’re building the team across engineering, development, operations, and commercial. If that’s you, send us your CV and tell us where you fit.
hr@parcodata.com →Whether you're reserving campus capacity or exploring a commercial partnership, tell us about your load and timeline and our team will follow up.
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