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depin-building-physical-infra-on-chain
Blog

Why Physical Infra Needs Its Own Security Token Standard

ERC-20 and ERC-721 are financial and cultural primitives, not infrastructure primitives. This analysis argues that DePIN's success hinges on a new token standard designed for hardware attestation, granular permissions, and on-chain governance of physical assets.

introduction
THE MISMATCH

The DePIN Lie: Pretending Hardware is a JPEG

ERC-721's static ownership model fails to represent the dynamic, performance-based value of physical infrastructure.

ERC-721 is insufficient for DePIN. It tokenizes a static digital ID, not a live asset with variable utility and yield. A Helium hotspot's value derives from its uptime and data transfer, not its NFT metadata.

Physical assets require performance attestation. The token standard must embed verifiable proofs of work, like a Render Network node's processed frames or an Hivemapper contributor's validated map tiles. This creates a direct link between on-chain ownership and off-chain utility.

The new standard is a yield-bearing security. Unlike a JPEG, a DePIN token's value accrues from its underlying hardware's cash flow. This demands a hybrid model merging ERC-20's fungibility for rewards with ERC-721's uniqueness for asset identity.

Evidence: IoTeX's MachineFi and peaq network's multi-chain DePIN L1 are pioneering frameworks that treat hardware as a yield-generating primitive, not a collectible.

thesis-statement
THE INFRASTRUCTURE GAP

Core Thesis: Tokens Must Encode State, Not Just Value

Current token standards like ERC-20 are insufficient for representing ownership and operational rights in physical infrastructure, requiring a new standard that encodes dynamic state.

ERC-20 is a ledger primitive designed for fungible value, not for representing complex ownership rights or operational states in physical systems like data centers or wireless networks.

Physical assets have dynamic state—uptime, maintenance schedules, performance metrics—that a simple balance cannot capture. This creates a legal and operational disconnect between the on-chain token and the off-chain asset.

The solution is a stateful token standard that embeds verifiable claims about the underlying asset's condition and performance, moving beyond the static accounting of ERC-20/ERC-721.

Evidence: Projects like Helium (HNT) and Render Network (RNDR) already hack around this limitation with off-chain oracles and complex staking logic, proving the market need for a native standard.

WHY ERC-20 AND ERC-721 FAIL PHYSICAL INFRASTRUCTURE

Standard vs. Requirement: The DePIN Mismatch Matrix

Comparison of token standards against the core requirements for securing and governing physical infrastructure networks.

Critical DePIN RequirementERC-20 (Fungible)ERC-721 (NFT)Ideal DePIN Standard

Native Work Unit Representation

Continuous Revenue Streams

Manual escrow/distro

Native yield-bearing token

Slashing for Downtime

Hardware Identity & Reputation

Address-based only

Static token ID

Dynamic, on-chain SLO attestations

Multi-Asset Staking Collateral

Governance Weighted by Contribution

Token-weighted only

Hybrid: stake + proven work

Compliance & Geographic Licensing

Embedded KYC/AML hooks & geofencing

Hardware Lifecycle Management

Static metadata

Dynamic state machine (e.g., active, maintenance, decommissioned)

deep-dive
THE SECURITY LAYER

Anatomy of a DePIN Token: Beyond the BalanceOf() Function

DePIN tokens are not simple payment instruments; they are programmable security primitives that govern physical infrastructure.

ERC-20 is insufficient for DePIN. The standard's fungibility and simple ownership model fails to encode real-world operational rights and liabilities. A token must represent a claim on compute cycles or sensor uptime, not just a generic balance.

Tokenized slashing mechanisms are the core innovation. Protocols like Helium and io.net use staked tokens as collateral for service-level agreements. Poor performance triggers automated, on-chain penalties, aligning incentives without centralized enforcement.

Proof-of-Physical-Work (PoPW) requires a new token standard. This standard must natively integrate oracles like Chainlink and DIA for verifiable off-chain data feeds, moving beyond pure cryptographic proof to attested real-world performance.

Evidence: Helium's migration to Solana was driven by the need for a high-throughput execution environment capable of handling millions of daily Proof-of-Coverage claims, a workload impossible on its original L1.

counter-argument
THE DATA MISMATCH

Counterpoint: Just Use an NFT with Attached Metadata

Standard NFTs fail to encode the complex, mutable state and legal rights required for physical asset ownership.

NFTs are state-blind. An ERC-721 token tracks a static tokenId, not the dynamic condition, location, or maintenance logs of a physical asset like a turbine. This creates a data integrity gap between the digital token and the real-world object it purports to represent.

Attached metadata is fragile. Relying on centralized APIs (e.g., a traditional cloud server) for critical asset data reintroduces a single point of failure, defeating the purpose of on-chain ownership. The off-chain dependency means the token's value proposition collapses if the API goes offline.

Legal enforceability is absent. A JPEG's metadata field does not constitute a legal claim. A dedicated security token standard like ERC-3643 or ERC-1404 embeds regulatory compliance, transfer restrictions, and investor rights directly into the token's logic, which is non-negotiable for institutional asset financing.

Evidence: The total value locked in real-world asset (RWA) protocols like Centrifuge and Maple Finance exceeds $5B, all built on specialized, compliant tokenization frameworks—not generic NFT standards.

protocol-spotlight
SECURITY FOR PHYSICAL ASSETS

Who's Building the Primitives?

Existing token standards like ERC-20 are insufficient for real-world assets, creating systemic risk and limiting institutional adoption.

01

ERC-20 Fails for Physical Assets

ERC-20's fungibility and purely digital custody model is a mismatch for unique, physical collateral. This creates a legal and technical abstraction gap that undermines security.

  • No native legal recourse for token holders against the underlying asset.
  • Opaque off-chain dependencies on centralized custodians and oracles.
  • Single points of failure where a custodian's bankruptcy voids the token's value.
100%
Off-Chain Risk
0
Legal Clarity
02

The RWA Token Standard Thesis

A new primitive must encode legal rights and physical state directly into the token's logic, moving beyond simple balance accounting.

  • On-chain legal frameworks like ERC-3643 or ERC-1400 for permissioned transfers and investor checks.
  • Multi-signature custody proofs requiring consensus from independent, regulated entities.
  • Slashing mechanisms that penalize custodians for proof-of-reserve failures or asset mismanagement.
ERC-3643
Leading Standard
>3
Required Signers
03

Ondo Finance & The Institutional Blueprint

Ondo's OUSG (tokenized US Treasuries) demonstrates the required architecture, acting as a de facto standard for others like Matrixdock and Backed Finance.

  • Legal isolation via a dedicated SPV for bankruptcy remoteness.
  • Professional custodian network (e.g., Bank of New York Mellon).
  • Regular attestations from third-party auditors published on-chain.
  • Permissioned transfers to comply with securities regulations.
$B+
TVL
24/7
Settlement
04

The Oracle Problem is a Security Problem

Price feeds aren't enough. A physical asset standard requires proof-of-existence and proof-of-custody oracles that are economically aligned.

  • EigenLayer AVSs like Lagrange or Hyperbolic for decentralized verification of real-world events.
  • ZK-proofs of physical audits (e.g., RISC Zero) to cryptographically verify custodian reports.
  • Staked oracle networks where data providers are slashed for submitting false attestations.
ZK
Audit Proofs
AVS
Security Model
05

Tangible & Real-World Asset Vaults

Protocols like Tangible and Centrifuge pioneer asset-specific vaults that bundle custody, valuation, and income distribution into a single primitive.

  • Asset-native tokens (e.g., TNFTs for real estate) that represent direct ownership rights.
  • Revenue auto-distribution via ERC-20 reward tokens streamed to holders.
  • On-chain appraisal committees using delegated reputation to assess asset value.
TNFT
Asset Token
DeFi Native
Cashflows
06

Without a Standard, RWAs Remain a House of Cards

Fragmented, ad-hoc solutions prevent composability and concentrate risk. The winning standard will be adopted by MakerDAO, Aave, and major custodians, becoming the base layer for trillions in asset tokenization.

  • Composability unlocks liquidity: Standardized tokens become collateral across all DeFi.
  • Security becomes programmable: Slashing, insurance, and dispute resolution are baked in.
  • The alternative is systemic collapse: A single major custodian failure could cripple the entire RWA sector.
$T
Addressable Market
MakerDAO
Key Integrator
risk-analysis
WHY PHYSICAL INFRA NEEDS ITS OWN SECURITY TOKEN STANDARD

The Risks of Inaction

Treating real-world assets like digital-native tokens is a critical error; the existing ERC-20/ERC-721 frameworks are fundamentally mismatched for the legal, operational, and compliance demands of physical infrastructure.

01

The Legal Black Hole: ERC-20 vs. Property Law

ERC-20 tokens are bearer instruments, but ownership of a power plant or fiber optic cable is defined by title registries and legal jurisdiction. Without a dedicated standard, token holders face irreconcilable legal ambiguity in enforcement and recovery.

  • On-chain transfer ≠ legal title transfer
  • Creates massive liability for issuers and investors
  • Exposes projects to regulatory shutdown risk
100%
Legal Mismatch
High
Enforcement Risk
02

The Oracle Problem: Real-World Data On-Chain

Infrastructure assets generate operational data (energy output, bandwidth usage) and require off-chain actions (maintenance, compliance audits). Generic standards lack native hooks for oracle-attested performance and governance-triggered upkeep.

  • No framework for Chainlink or Pyth-verified KPIs
  • Revenue distributions are manual and opaque
  • $10B+ RWAs are flying blind without live data feeds
Manual
Data Reconciliation
Opaque
Performance Tracking
03

Compliance Fragmentation & The FATF Travel Rule

Each jurisdiction has unique rules for securities and anti-money laundering. A generic token forces every project to rebuild KYC/AML and transfer logic from scratch, creating a compliance attack surface and hindering liquidity.

  • No native investor accreditation checks
  • Manual whitelisting destroys composability with Uniswap, Aave
  • FATF Travel Rule compliance requires custom, brittle solutions
Per-Project
Compliance Build
Fragmented
Liquidity Pools
04

The Interoperability Trap: Locked in Silos

Without a universal standard, each infrastructure project creates its own tokenized walled garden. This kills the core Web3 value proposition of composable liquidity and prevents assets from moving across DeFi protocols like MakerDAO or cross-chain bridges like LayerZero.

  • Assets cannot be used as collateral in money markets
  • Zero network effects between infrastructure projects
  • Reinvents the wheel of tokenized private equity failures
Siloed
Asset Liquidity
Low
DeFi Utility
05

The Custody Conundrum: Who Holds the Keys?

Physical assets require licensed custodians and regulated trustees. A standard ERC-20 in a self-custodied wallet breaks the legal chain of custody, invalidating insurance and violating securities law. The tech stack needs native multi-sig roles for operators, custodians, and investors.

  • Self-custody voids most insurance policies
  • No delineation between beneficial vs. legal ownership
  • Creates a single point of failure for asset control
Invalidated
Insurance
Undefined
Control Rights
06

The Valuation Paradox: Static Tokens vs. Dynamic Assets

An ERC-20's supply is fixed, but infrastructure assets depreciate, require capex, and have variable revenue. Without a standard for tokenized cash flows, depreciation schedules, and capital call mechanisms, the on-chain representation becomes economically disconnected from reality.

  • Token price diverges from Net Asset Value (NAV)
  • No mechanism for funding $M+ maintenance events
  • Destroys trust in the token-as-asset model
Divergence
Price vs. NAV
Broken
Cash Flow Model
future-outlook
THE TOKENIZATION FRONTIER

The Next 18 Months: Standard Wars and Native Integration

A new security token standard is the prerequisite for scaling physical infrastructure investment on-chain.

ERC-1400 is insufficient for physical assets. This standard handles corporate equity but lacks the granular rights, revenue splits, and compliance hooks needed for power plants or fiber networks. Real-world assets (RWAs) require programmable cash flows tied to physical performance, not just share ownership.

The winning standard will be chain-agnostic. It must function natively on Ethereum L2s, Solana, and Avalanche to attract global capital. A single-chain standard creates fragmentation, mirroring the early ERC-20 vs. BEP-20 wars that stifled DeFi composability.

Native integration with DeFi primitives is non-negotiable. The standard must plug directly into Aave's credit markets and Uniswap's liquidity pools without custom wrappers. This enables infrastructure tokens to become collateral or form index products, moving beyond static ownership.

Evidence: Ondo Finance's OUSG token, built on a proprietary standard, already demonstrates the demand for yield-bearing RWAs, locking over $400M in assets. A universal standard would unlock an order of magnitude more by enabling interoperability with protocols like MakerDAO and Compound.

takeaways
PHYSICAL ASSET SECURITY

TL;DR for the Time-Poor CTO

Traditional real-world asset (RWA) tokenization is a legal abstraction, not a technical one. Physical infrastructure demands a native security layer.

01

The Problem: Legal Abstraction is a Single Point of Failure

Today's RWA tokens are IOUs backed by off-chain legal agreements. This creates a custodial risk and enforcement gap. If the legal entity fails, the on-chain token is worthless, regardless of the underlying asset's physical state.

  • Risk: Counterparty failure collapses the token's value.
  • Gap: Smart contracts cannot physically enforce claims on a server rack or power line.
100%
Off-Chain Risk
02

The Solution: Programmable Physical Security

A dedicated standard embeds cryptographic proof-of-physical-state (e.g., geolocation, uptime, temperature) directly into the asset's token logic. Think of it as a soulbound token for machines.

  • Enforcement: Smart contracts can autonomously slash value or trigger maintenance based on sensor data.
  • Composability: Secured physical capacity becomes a trustless primitive for DePIN protocols like Helium or Render.
Native
On-Chain Proof
03

The Killer App: Automated Infrastructure Markets

With verifiable physical state, compute, bandwidth, and energy can be traded in permissionless spot markets without custodians. This unlocks the true DePIN vision.

  • Efficiency: Eliminates layers of manual verification and escrow services.
  • Scale: Enables $10B+ markets for granular physical resource trading (e.g., idle GPU seconds, burst bandwidth).
0
Custodians
$10B+
Market Potential
04

The Architecture: Oracles Are Not Enough

Bolt-on oracle feeds (e.g., Chainlink) are insufficient. Security must be baked into the token mint/burn logic itself, creating a cryptographic tether to the physical asset's operational integrity.

  • Weakness: Oracles provide data, not inherent security; they are another external dependency.
  • Strength: A native standard makes the asset's token its primary security auditor.
Native
vs. Bolt-On
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