Who Pays for a $1 Billion Infrastructure Project?

Meta’s Hyperion data center campus is expected to cost about $27 billion.

But Meta is not simply writing a $27 billion check.

Funds managed by Blue Owl Capital own 80% of the joint venture. Meta owns 20%. Part of the capital is being financed with debt sold to PIMCO and other investors. Meta will lease the facilities from the joint venture, and it also provided a capped residual-value guarantee under specified conditions.[1]

One project can therefore have different:

  • owners,
  • lenders,
  • builders,
  • customers,
  • and risk bearers.

That is the useful way to think about project finance.

The question is not only:

“Who wrote the check?”

It is:

“Who owns the project, who funds it, who pays it, who carries the risk, and who finally receives the cash?”

The short answer

A large infrastructure project can be separated into its own project company and funded with a mix of equity and debt.

Figure 1. Project finance works by turning one planned asset into a chain of contracts and cash flows, from funding to equity distribution.

The physical asset is important.

But the real financing system is made of contracts and cash flows.

Corporate finance and project finance are not the same

Suppose a company wants to build a power plant or data center.

It can borrow directly on its own balance sheet.

Parent company borrows
        ↓
Parent owns the debt
        ↓
Parent builds the asset
        ↓
Lender relies on the parent company

That is closer to corporate finance.

Project finance uses a different center of gravity. World Bank PPP guidance describes the project company as the entity that holds the project assets and raises debt and equity for the project.[5]

Sponsors create project company
          ↓
         SPV
          ↓
SPV owns project assets
          ↓
SPV signs project contracts
          ↓
SPV receives project cash
          ↓
Project cash services project debt

The World Bank describes classic project finance as financing in which lenders rely mainly on the project’s own future cash flow and project assets, with limited or no recourse to the sponsors.[2]

The SPV is a legal box—not a magic shield

SPV means Special Purpose Vehicle.

For this article, think of it as a legal box around one project.

The box can:

  • own the land and equipment,
  • borrow money,
  • receive sponsor equity,
  • sign construction contracts,
  • sign customer contracts,
  • receive project revenue,
  • and pay project debt.

But two warnings matter.

First, an SPV does not automatically mean the financing is fully non-recourse.

Parent companies can still provide guarantees, completion support, lease commitments, or other obligations.

The Hyperion structure is a good example: Meta owns only 20% of the JV, but it also agreed to lease the campus and provided a specified residual-value guarantee.[1]

Second, SPV does not automatically mean classic project finance.

In October 2026, Reuters reported that Amazon was exploring an investor-owned SPV that could acquire about $8 billion of Nvidia chips and lease them back to Amazon while the SPV raises debt.[3]

That uses an SPV, but the economic structure looks more like asset and lease financing than a traditional greenfield power-project model.

The legal box matters.

The contracts inside the box matter more.

Build a simple $1 billion project

Now simplify the system.

Imagine an infrastructure project costs exactly $1 billion.

For illustration only, assume:

Total project cost       $1.00B

Debt                     $700M
Equity                   $300M
-------------------------------
Total                    $1.00B

This is not a universal 70/30 rule.

The World Bank notes that debt/equity structures depend on the project, sector, technology, sponsors, contracts, risks, and financial markets. Some power projects can support debt shares around 70%–80%, while riskier projects may support less.[4]

The useful question is not:

“What is the normal debt percentage?”

It is:

“How much debt can this project safely support?”

Debt capacity is constrained by project cash

In ordinary company analysis, people often start with a debt amount.

Project finance often forces you to think in the other direction.

Lenders ask how much cash the project can generate and how much of that cash can reliably service debt.

Figure 2. Debt capacity depends on project cash and lender constraints, and project cash then moves through a waterfall before equity can receive distributions.

That is why a sponsor cannot simply say:

“We want 90% debt.”

If the project cash cannot support that debt with enough cushion, lenders will not treat the capital structure as safe.

Construction comes before revenue

For a new project, cash usually leaves before operating cash arrives.

Land / permits
      ↓
Engineering
      ↓
Equipment
      ↓
Construction
      ↓
Testing
      ↓
Commercial operation
      ↓
Customer cash

The World Bank notes that greenfield project companies often have no operating revenue during construction. That makes completion risk central to the financing.[2]

Lenders therefore want to know:

  • Who builds the project?
  • Is there a fixed-price or other construction contract?
  • Who pays if the project runs over budget?
  • Who carries delay risk?
  • Who guarantees performance?
  • What happens if the asset does not work as designed?

Project finance is not a way to make risk disappear.

It is a way to decide who carries each risk.

The customer contract can matter more than the asset

A billion-dollar data center does not pay debt by itself.

A power plant does not pay debt by itself.

Customers do.

That is why lenders care deeply about long-term contracts such as:

  • power-purchase agreements,
  • data-center leases,
  • capacity agreements,
  • concessions,
  • take-or-pay contracts,
  • and other minimum-payment commitments.

A strong contract can make future cash easier to forecast.

Reliable customer
      ↓
Reliable contract
      ↓
More predictable project cash
      ↓
More lender confidence
      ↓
More financeable project

This is the practical meaning of bankability: lenders believe the project can generate enough reliable cash to meet its obligations.

CFADS: the cash lenders actually care about

Before debt payments, project lenders focus on cash flow available for debt service, often shortened to CFADS.

The exact definition depends on the financing documents, but the basic idea is simple:

Project revenue
- operating costs
- taxes and required project payments
--------------------------------------
Cash available for debt service

That cash then has to cover interest and principal.

DSCR: the coverage test

DSCR means Debt Service Coverage Ratio.

DSCR
=
Cash available for debt service
÷
Scheduled debt service

Suppose:

CFADS            $100M
Debt service      $70M

DSCR
= 100 / 70
≈ 1.43x

A 1.43x DSCR means the project has $1.43 of available debt-service cash for every $1 of scheduled debt payment.

The World Bank describes DSCR as a periodic test of whether available project cash can cover interest and principal.[4]

But do not make a common mistake.

A 1.43x DSCR does not mean the extra 0.43x automatically goes straight to equity.

Financing agreements can require:

  • reserve-account funding,
  • distribution lock-ups,
  • cash sweeps,
  • or other lender protections.

World Bank guidance notes that when financial ratios fall below required levels, lenders can block distributions, sweep cash, use reserve accounts, and exercise additional control rights.[4]

The cash waterfall: who gets paid first?

Project cash moves in an order.

Customer revenue
      ↓
Operating costs
      ↓
Taxes / required payments
      ↓
Debt service
      ↓
Required reserves
      ↓
Permitted equity distribution

This is why the simple phrase:

“Debt gets paid first. Equity gets what is left.”

is useful—but incomplete.

Equity gets what is left after the financing documents allow it to leave the project.

Who bears each risk?

For every large infrastructure project, follow the risk to a contract.

  • Construction risk: EPC contractor, SPV, sponsors, insurers.
  • Cost-overrun risk: contractor, sponsors, or SPV depending on the contract.
  • Revenue risk: SPV, customer, government, or equity owners depending on the payment structure.
  • Interest-rate risk: SPV unless fixed, hedged, or shifted contractually.
  • Operating risk: operator, SPV, equipment supplier, insurer.
  • Residual-value risk: whichever party provides the relevant guarantee or bears the asset value at the end.

The exact answer changes by deal.

The principle does not:

Risk does not disappear. It gets assigned.

Why leverage changes equity returns

Debt lets sponsors build a larger asset with less equity.

If project returns are strong and the cost of debt is lower than the project’s return, leverage can increase the return on the smaller equity base.

But the order of payment also makes equity more fragile.

Strong project cash
      ↓
Debt service covered
      ↓
Equity receives residual cash

Weak project cash
      ↓
Debt service still due
      ↓
Equity cash is reduced or blocked

This is why project return and equity return are not the same thing.

A good project can still be a bad stock investment

Now return to the listed parent company.

Suppose the project operates exactly as planned.

The parent can still disappoint its shareholders if it:

  • paid too much for its equity stake,
  • gave large guarantees,
  • must cover construction overruns,
  • signed an expensive long-term lease,
  • borrowed heavily at the parent level,
  • or receives only a small share of the project’s upside.

This leads to one of the most important questions in the Money Flow series:

How does project cash reach the parent company—and then the shareholder?

The Five-Party Project Finance Lens

When a company announces a giant infrastructure project, ask five questions.

Figure 3. The Five-Party Project Finance Lens helps separate ownership, funding, payment, risk, and final cash distribution.
  1. Who owns?
    Who owns the SPV or joint venture?
  2. Who funds?
    How much comes from sponsor equity, debt, private capital, or public support?
  3. Who pays?
    Which customer, tenant, utility, government, or user creates the project revenue?
  4. Who bears risk?
    Who guarantees completion, cost overruns, lease payments, demand, or residual value?
  5. Who gets cash?
    What gets paid before equity, and how does the final distribution reach the parent company?

If you can answer those five questions, a complicated financing announcement becomes much easier to read.

How this connects to AI, energy, and space

The assets are different.

The money-flow questions are surprisingly similar.

AI data center

Capital providers
      ↓
Data-center SPV / JV
      ↓
Campus + power + cooling
      ↓
Hyperscaler lease
      ↓
Project cash
      ↓
Debt / reserves
      ↓
Equity distribution

Power infrastructure

Capital providers
      ↓
Power-project SPV
      ↓
Plant / grid asset
      ↓
PPA / tariff / capacity payment
      ↓
Project cash
      ↓
Debt / reserves
      ↓
Equity distribution

Space infrastructure

Capital providers
      ↓
Project company
      ↓
Ground system / factory / service asset
      ↓
Customer contracts
      ↓
Project cash
      ↓
Debt / reserves
      ↓
Equity distribution

Space projects can be harder to finance when technology, launch schedules, utilization, or customer demand remain uncertain.

Predictability is valuable because lenders are not funding the excitement.

They are funding the cash flow.

How this fits into the Money Flow system

Funding
   ↓
Project finance
   ↓
CAPEX
   ↓
Asset
   ↓
Customer contract
   ↓
Revenue
   ↓
CFADS
   ↓
Debt service
   ↓
Equity cash
   ↓
Shareholder return

How Money Flows Through the Economy explains where bank loans, bonds, equity, private credit, and other financing channels come from.

What Is Capex? explains what happens when that capital turns into long-lived assets.

This article connects the two:

How do investors and lenders turn a large planned asset into a financeable set of contracts and cash flows?

Key Vocabulary

  • SPV — a separate legal project company created for a specific purpose.
  • Project finance — financing in which lenders rely mainly on a project’s own cash flow and assets for repayment.
  • Limited recourse — lenders have only the agreed claims against project sponsors beyond the project itself.
  • Equity — owner capital that takes residual risk and residual returns.
  • Debt — borrowed capital that must be serviced under contractual terms.
  • Offtake contract — an agreement under which a customer commits to buy project output or capacity.
  • CFADS — cash flow available for debt service.
  • DSCR — CFADS divided by scheduled debt service for a period.
  • Cash waterfall — the contractual order in which project cash is used and distributed.
  • Bankable — able to attract financing because lenders believe project risks and cash flow are acceptable.

The takeaway

A billion-dollar project is not financed by one number.

It is financed by a system.

Who owns?
Who funds?
Who pays?
Who bears risk?
Who gets cash?

The SPV organizes the project.

Debt and equity fund it.

Contracts create and protect the cash flow.

Lenders control how much risk the project can carry.

Equity receives the residual value.

And parent-company shareholders still need to ask whether the project’s cash and obligations actually improve their return.

If you remember one sentence, remember this:

Project finance is not a way to remove risk. It is a way to assign risk and cash flow to specific parties.

Next in the Money Flow series:

What Is Private Credit—and Why Is It Funding More Infrastructure?

Sources

  1. Meta — Hyperion Data Center Joint Venture with Blue Owl Capital
  2. World Bank — Project Finance: Key Concepts
  3. Reuters — Amazon Explores Nvidia-Chip SPV and Leaseback Structure
  4. World Bank — Key Issues in Developing Project Financed Transactions
  5. World Bank — Finance Structures for PPPs

The $1 billion project and 70/30 debt-equity split are illustrative. Real project-finance structures depend on contracts, risk, sector, regulation, credit quality, and market conditions.