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Showing posts sorted by date for query revenue growth mobile fixed. Sort by relevance Show all posts

Tuesday, August 4, 2026

Off-Balance-Sheet Financing is an Infrastructure Staple

The AI infrastructure boom has changed the nature of hyperscaler financial commitments. Traditionally, investors focused on on-balance-sheet debt (bonds, bank loans and finance leases). Today, a growing issue is contractual obligations that are legally binding but are not yet recognized as liabilities under U.S. generally accepted accounting practices.


These commitments include:

  • Multi-decade data center leases

  • Colocation agreements

  • GPU purchase commitments

  • Power purchase agreements (PPAs)

  • Network infrastructure contracts

  • Joint venture funding commitments

  • Capacity reservation agreements


The accounting treatment, while legitimate, represents future fixed cash commitments not reflected on balance sheets. 


According to Moody's Ratings, at year-end 2025, about $1.9 trillion in such future commitments were incumbent on a few hyperscale high-performance-computing suppliers::

Item

Amount

Total undiscounted future data center lease commitments

$969 billion

Not yet commenced (therefore largely off balance sheet)

$662 billion

Portion already commenced

about $307 billion


According to Moody's, $662 billion of uncommenced lease obligations exceeded the group's adjusted reported debt by roughly 113 percent. 


Company

Major off-balance-sheet commitments

Approximate current scale (2026)

Likely growth through 2028

Alphabet

AI data center leases, TPU infrastructure, power contracts

roughly $120B-$170B

$200B+ possible

Amazon

Data center leases, AWS capacity, equipment commitments

roughly $180B-$250B

$300B-$400B possible

Microsoft

Azure leases, OpenAI infrastructure, private investment funds

roughly $150B-$220B

$250B-$350B possible

Meta Platforms

AI campuses, Hyperion leases, networking

about $279B disclosed lease commitments after Q2; additional July commitments announced

$350B-$450B possible

Oracle

OCI data centers, GPU commitOfments, leased facilities

roughly $50B-$100B

$100B-$150B possible


Meta provides one of the clearest examples:

  • future AI lease obligations appr;;;;;;\\q12aaching $279 billion

  • another approximately $68 billion of new leases signed after quarter-end

  • lease terms extending as long as 30 years

  • commitments tied to multiple multi-gigawatt AI campuses.


Many obligations never appear as debt but nevertheless commit future cash flow:

Commitment type

Typical accounting treatment

Economic effect

Long-term data center leases

Recognized when lease commences

Future fixed payments

GPU purchase contracts

Usually not recognized until delivery

Locked capital spending

Power purchase agreements

Often disclosed as commitments

Long-term electricity costs

Network capacity reservations

Footnote disclosure

Fixed operating expense

Joint venture funding

Often partially off balance sheet

Future capital contributions

Colocation agreements

Lease recognition delayed until commencement

Multi-year cash obligations


Such practices are common in other capital intensive industries, or parts of industry infrastructure, including airline transportation providers, because doing so:

  • preserves reported leverage ratios

  • matches accounting recognition to asset availability

  • allows capacity to be secured years before facilities open

  • enables landlords and infrastructure funds to finance construction

  • reduces the need to issue corporate debt immediately. 


If AI capital spending continues near today's pace, a reasonable scenario for Alphabet, Amazon, Microsoft, Meta and Oracle is:

p[;;;;;

Year

Estimated aggregate off-balance-sheet commitments (five hyperscalers)

2025

~$662B (Moody's estimate of uncommenced leases)

2026

~$800B-$1.0T

2027

~$1.1T-$1.4T

2028

~$1.3T-$1.7T


The issue for some observers is whether such future commitments are a problem, or not. Even if not considered “debt” in a GAAP sense:

  • They require future cash payments.

  • They reduce future financial flexibility.

  • Many cannot easily be canceled without substantial penalties.

  • Credit analysts increasingly incorporate them into leverage analysis.


The issue is impact on firm leverage


But that seemingly often is an issue with the financing of infrastructure. Railroads, electric utilities, pipelines, airports, seaports, cellular networks, and fiber networks all required enormous up-front investment years before meaningful revenues arrived. 


Each wave developed financing techniques that shifted risk away from the sponsoring company while securing long-term capital.


Infrastructure era

Typical financing

Off-balance-sheet elements

Primary revenue support

Similarity to AI infrastructure

Railroads (1800s)

Corporate bonds, land grants

Limited

Freight and passenger traffic

Moderate

Electric utilities (1900s-present)

Utility debt, project finance

Power purchase agreements, independent power producers

Regulated utility revenues

Very high

Seaports

Public authorities, revenue bonds

Long-term terminal concessions

Shipping fees

High

Airports

Municipal bonds, PPPs

Airline gate leases

Passenger and airline fees

High

Toll roads

Project finance, PPPs

SPVs, concession agreements

Toll revenues

Very high

Mobile networks

Corporate debt, tower leasing

Tower REIT leases

Wireless subscriptions

Very high

Fiber networks

Project finance, infrastructure funds

Long-term IRUs, dark fiber leases

Wholesale and retail access

Extremely high

AI data centers

Corporate debt, project finance, lease finance

Long-term data center leases, PPAs, equipment commitments

Cloud and AI services

Highest


Electricity infrastructure evolved from vertically integrated utilities financing everything on their own balance sheets to today's mixture of:

  • utility-owned assets,

  • independent power producers,

  • project-financed generation,

  • long-term power purchase agreements (PPAs), and

  • infrastructure funds.


The important innovation was separating ownership from usage. A utility could commit to buying electricity for 20–30 years without necessarily owning the generating plant. That resembles today's hyperscalers signing 15- to 30-year leases for AI campuses built by third-party developers.


Modern project finance emerged because infrastructure became too expensive for sponsors to fund entirely on their own balance sheets.

Instead:

  • a special-purpose vehicle (SPV) owns the project,

  • lenders are repaid primarily from project cash flow,

  • the sponsor's liability is limited,

  • long-term customer contracts reduce lender risk.

This structure became common for:

  • toll roads,

  • airports,

  • ports,

  • power plants,

  • pipelines.


AI data centers resemble these projects.


Wireless carriers originally owned virtually everything:

  • towers,

  • land,

  • buildings,

  • backup power.


Beginning around 2000 they sold towers to companies such as American Tower, Crown Castle, and SBA Communications.


Instead of ownership they signed:

  • 10- to 20-year leases,

  • automatic renewals,

  • inflation escalators.


From an economic perspective, tower lease obligations became debt-like commitments while freeing carriers' balance sheets for spectrum purchases and network equipment. Hyperscalers appear to be following almost exactly the same path.


Monday, July 6, 2026

Value in Technology Value Chains Tends to Migrate to the App Layer

Slow revenue growth and lower average revenue per account are hardly new concerns for suppliers of consumer access services (mobile or fixed). 


But we should not be surprised, either. 


The rule in technology industries is that economic value tends to migrate upward in the technology stack. Network effects are one reason. But opportunities for customer relationships, loyalty and multiple revenue models also make a big difference. 


Asset

Access provider

Application

Customer relationship

Weak

Strong

User data

Limited

Extensive

Workflow integration

None

Deep

Brand loyalty

Moderate

High

Network effects

Small

Often enormous

Pricing flexibility

Low

High


So in the internet value chain, roughly half of ecosystem revenues accrue to app providers, while access providers (internet service providers, mobile service providers) get between 15 percent and 20 percent. 


Value chain layer

Typical participants

Approx. share of ecosystem revenues

Economic characteristics

User applications & digital services

Google, Meta, Microsoft, Netflix, Salesforce

45–55%

Highest margins and strongest network effects

Commerce & digital platforms

Amazon, Uber

20–25%

Transaction-based economics

Cloud & enabling services

Amazon Web Services, Microsoft Azure, Google Cloud, CDNs

10–15%

Infrastructure with higher value-added

Internet access

ISPs, cable, mobile operators

15–20%

Capital intensive, regulated, slower growth

Passive infrastructure

Towers, fiber REITs, colocation

5–10%

Stable but utility-like returns


The economic principle is simple:

  • Infrastructure competes on capacity

  • applications compete on customer outcomes.


Capacity usually becomes abundant, and abundance reduces pricing power.  Solutions for customer problems remain “scarce,” in the sense that customers gravitate to a relatively few apps and tend to stick with them over time. 


And scarcity supports pricing power. 


Economic force

Internet example

AI analogy

Infrastructure becomes commoditized

Broadband, fiber and mobile access become widely available

GPU clusters eventually become standardized compute utilities

User attention concentrates

Search, social media, streaming dominate consumer engagement

AI assistants and vertical AI agents become primary interfaces

Switching costs increase higher in stack

Users stay with Gmail, Office 365, Salesforce—not because of ISP

Users remain with AI workflow platforms because of memory, integrations and data

Network effects strongest near users

Facebook, YouTube, Amazon Marketplace

OpenAI ecosystem, enterprise agent platforms, developer ecosystems

Pricing power follows differentiation

ISP sells Mbps; applications sell outcomes

GPU provider sells tokens; applications sell productivity or decisions

Marginal cost falls faster below than above

Network capacity continually gets cheaper

Compute cost falls faster than value of specialized applications


In the AI ecosystem, similar value chain effects should happen. Value should accrue heavily at the app layer. 


AI layer

Future revenue share

Why

AI applications and agents

40–50%

Own workflows and customer relationships

Vertical enterprise software

20–25%

Industry-specific solutions

Foundation model providers

10–20%

Models become more competitive over time

AI cloud infrastructure

10–15%

Compute utility with economies of scale

Hardware (GPUs, networking)

5–10%

Hardware normalizes after supply shortages

Power and facilities

3–8%

Necessary but infrastructure economics

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