TK Dilus Platform

Yes — we do, in stages. Offtakers progress from diligence to indicative terms, then to binding documents (capacity, ramp, pricing, etc.). In parallel, capital providers issue indicative terms earlier, conditioned on objective milestones and grounded in the contracting spine and delivery basis. These commitments mature in stages and differ across platform equity, bridge-power PF, real estate finance, and the nuclear step-up.

Our offtake security rests on two pillars. First, bridge power is the near-term contractable lane that matches 2–3 year procurement timelines and is underwritten by energy infrastructure investors with “classical” mandates and risk appetite. That anchors early contracted revenue and supports the underwriting case for the nuclear step-up.

Second, we run multiple single-tenant offtake lanes in parallel (per data-center building), so readiness doesn’t hinge on one early signature. Specific counterparties and structures are shared under NDA.

No. The campus is designed to run islanded / behind-the-meter as the primary operating mode, across the phased build, with grid export treated as optional upside (e.g., municipal/community supply or additional revenue where available), not as the critical path. If/when we pursue interconnection, it’s a parallel, gated workstream with explicit queue/upgrade exposure—rather than an assumption baked into deliverability.

No. We’re working only with proven, GW-scale commercial technologies. This platform is about delivery, contracting, and financeability—making nuclear energy bankable and repeatable. If any novel element exists, it is wrapped, bounded, and insured, with practical fallback options (alternative components/technologies) planned into the schedule and cost basis so delivery stays on track. We prioritize delivery posture, risk allocation, and bankable revenue floors over novelty narratives. OEM diligence is active under NDA.

Bridge power is a contracted, financeable near-term delivery lane (2–3 years) that matches data-center procurement timelines—so hyperscalers can buy reliable capacity now while the nuclear lane progresses. It enables earlier COD and a clear commercial structure (capacity/tolling with pass-through where appropriate), generating predictable early revenue for the campus.

The nuclear lane is a separate underwriting packet that advances through gates, not a “wait 10 years” bet. The point is: commercial terms start now, and the nuclear upgrade executes once underwriting gates are met.

Large reactors make sense when there’s a pre-existing anchor (defense/industrial load or a utility context) to absorb the scale. For island-mode, greenfield data-center power, redundancy requires at least two independent nuclear units, and the combined scale pushes data-center and compute capex to a level where the financing package breaks apart.

Two SMR-class units match campus-scale and reliability needs, keeping the delivery and underwriting path financeable, phased, and repeatable—and preventing a mega-project outcome.

In our model, nth-of-a-kind (NOAK) replication improves economics, but it isn’t required for profitability. The commercial and financing logic is designed to work at each phase of the first campus (FOAK — first-of-a-kind) build-out.

The campus is designed to be profitable from FOAK #1 because the AI/data-center offtake supports contracted cashflows at each stage. Bridge power delivers first (Phase 1, then Phase 2), creating a financeable base with contracted cashflows. The nuclear lane then steps up to two SMR units for full clean-firm posture; if only one unit is delivered initially, the campus remains viable and reliability-compliant while the second follows.

Replication then improves financing terms, compresses WACC (weighted average cost of capital), and lowers delivered cost per unit of capacity ($/kW-month) across the platform.

We’re building an integrated power + campus delivery product (commercial structure, contracting spine, and replication toolkit), not selling a single interconnection-led project.

We are a platform in the practical sense: we integrate multi-vendor power + data-center design, the siting/licensing workflow, a delivery coalition (site/OEM/operator), and a replicable financing + contracting architecture with bankable evidence gates—beyond typical power project development and not just a one-off project.

Large infrastructure platforms are optimized for grid-connected renewables and standard project-finance templates, which makes it harder to pivot into nuclear delivery. Nuclear requires specialized underwriting packets, risk compartmentalization, and milestone gating. We focus on islanded, large-load nuclear campuses—combining bridge power, nuclear generation, and data centers in a phased build-out—so the system is bankable and reliably deliverable. That lets hyperscalers procure capacity without becoming utilities, and lets capital underwrite clean, ring-fenced lanes that can be repeated at scale.

Yes—because the platform combines capital-formation leadership with experienced technical development partners. Our team and partners cover nuclear project development (with delivery experience across Europe and globally), large-scale campus delivery architecture for high-reliability requirements, and institutional capital readiness.

Our organizational structure includes reliable governance and delivery control. We run workstreams with a lead + fast-follower cadence, release capital by objective gates, and build lender-readable packages (delivery basis, site posture, revenue basis, cost/schedule basis) with operating discipline and controls designed to scale.

Specific governance details, partner roles, and controlled diligence materials from the delivery and OEM workstreams are shared under NDA.

Is platform equity a binary nuclear bet? What do investors own if timelines slip?

No—platform equity is structured as a milestone-gated portfolio, not a single binary wager. Capital is deployed in staged releases against objective gates, with reallocation across the pipeline rather than “riding one site to zero.”

Investors own tangible, transferable assets: lead site #1 advanced to NTP-ready posture; fast-follower site #2 hard-gated; and a functioning fleet development organization designed to consistently produce bankable, profitable bridge-power and nuclear projects—comprised of governance and delivery controls, an active site pipeline, plus the commercial/offtake architecture, de-risked delivery basis, and lender-readiness workpacks that make the program repeatable.

Details of gates, governance, and packaging are shared under NDA.

How do you ring-fence risks and avoid a “half-built stranded asset” outcome?

We avoid “one big risk bundle” by using ring-fenced SPVs / lanes and milestone gating—so a late-stage risk does not contaminate earlier, financeable phases. The bridge-power and campus lanes are designed to be operable and contractable on their own, while the nuclear lane proceeds only when its gates are met. We also plan for step-in/termination mechanics and reallocation rights so the program can keep moving without being trapped in a single failure mode.

How do you de-risk nuclear power plant construction budget and schedule?

We treat budget as an underwriting artifact: obtain EPC-grade estimates and vendor quotations, map them into clear scopes/interfaces, and apply gated release milestones so capital is committed only when diligence conditions are met. We also structure risk transfer where feasible (tests, acceptance, LD posture, step-in rights) and align the delivery basis with lender expectations. Names, pricing, and workpacks are shared under NDA.

Do you retire bridge power once nuclear comes online?

No—bridge power is not designed to be torn down. It is a long-life asset that continues operating through its useful life and changes role as the campus evolves.

As the nuclear step-up comes online, bridge power becomes part of the reliability stack—supporting redundancy, maintenance/outage coverage, black-start/backup capability, and peak/reserve needs. Where permitted, it can also contribute export upside, but it is not the primary dependency.

The nuclear step-up improves long-term cost and clean-firm posture; it does not invalidate the bridge-power investment.

Is bridge power a short-dated investment—or a standalone asset with durable returns?

It’s the latter. Bridge power is structured as a standalone, financeable asset with contracted cashflows and an operating life that supports repayment and returns. The campus is designed so bridge power remains useful after nuclear comes online (reliability, reserve/peaking, outage coverage, black-start/backup), rather than being stranded or dismantled.

Details of term structure, amortization profile, and contracted obligations are shared under NDA.

What does “platform infra-equity” actually fund (and why is a ~$450–$500M raise credible)?

Platform infra-equity funds the fleet development engine, executed as lead + fast-followers (not parallel FOAK starts): site pipeline and control posture, contracting spine, delivery basis, commercial/offtake architecture, and lender-grade diligence packaging. It is credible because it underwrites a repeatable program (multi-site cadence) and unlocks project-level PF lanes that are separately capitalized. Detailed capitalization sequencing is shared under NDA.

Are you asking hyperscalers/offtakers to invest or take developer risk?

No. The preferred structure is payment against delivery via bankable commercial contracts, not milestone funding. We take developer workstream risk on our side and bring counterparties in through a standard procurement posture. Details and term shapes are shared under NDA.

Tier-1 offtakers already have nuclear partners — why would they need you?

An offtaker’s “nuclear partner” is often an OEM or strategic relationship—not an end-to-end delivery vehicle that packages site, contracting, financeability, and near-term power into a procurement-ready product. We focus on the interfaces that make the whole system executable: bridge-to-nuclear sequencing, contract architecture, and investable lanes that keep the offtaker out of utility ownership. In short: we make the capacity buyable and deliverable.

How do you manage nuclear technology selection risk (vendor concentration, breakthroughs, supplier failure)?

We manage this by designing vendor optionality where feasible, and avoiding single-vendor fragility, while keeping bankability through disciplined scopes/interfaces and gating. We do not rely on breakthroughs; we build a delivery posture that is robust under realistic vendor and market volatility. Specific vendor and licensing pathways are discussed under NDA.

How do you select sites and manage land/community constraints?

We start with practical overlays (fuel, transmission posture, roads/rail, industrial zoning, water/cooling posture, security perimeter potential) and move from “interesting” to “bankable” via gating. Land control, logistics, permitting pathway, and community fit are treated as first-order execution gates. Specific locations and counterparties are shared under NDA.