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web3-philosophy-sovereignty-and-ownership
Blog

Why True Ownership Demands Executable Intent, Not Just Signatures

A first-principles analysis arguing that crypto's definition of ownership is incomplete. True sovereignty requires the ability to program and execute complex on-chain intent, not just sign transactions. This is the core value proposition of smart contract accounts.

introduction
THE FLAW

Introduction

Current blockchain ownership models are incomplete, delegating execution power to external infrastructure.

Ownership without execution is delegation. A private key grants signature authority, not control over how transactions are executed. Users surrender this control to wallets and RPC endpoints, which determine transaction ordering, fee estimation, and MEV extraction.

Signatures are a primitive intent. Signing a raw transaction is a low-level, prescriptive command. Modern intent-based architectures like UniswapX and CowSwap abstract this, allowing users to declare outcomes (e.g., 'get the best price for 1 ETH') while solvers handle the complexity.

True ownership requires executable intent. The end-state is a self-executing cryptographic agent—a program bound to a key that autonomously manages assets based on predefined logic, eliminating intermediary trust. This shifts the paradigm from signing transactions to programming economic behavior.

thesis-statement
THE FLAW

Thesis Statement

Current blockchain ownership models are incomplete because they grant control over assets but not over the execution of user intent.

Signatures are insufficient for ownership. A signature grants permission but delegates execution logic to the receiving application. This creates a principal-agent problem where users must trust dApp logic with their assets.

True ownership requires executable intent. Users must define the desired outcome, not just approve a transaction. This shifts the paradigm from approving what a contract does to declaring what the user wants, as seen in UniswapX and CowSwap.

The current model leaks value. MEV extraction, failed transactions, and suboptimal routing are direct costs of ceding execution control. Protocols like Flashbots SUAVE and Anoma are building architectures where intent is the primitive.

Evidence: Over $1.3B in MEV was extracted from Ethereum users in 2023, a direct tax enabled by the signature-only model.

EXECUTABLE INTENT VS. STATIC SIGNATURE

EOA vs. Smart Account: A Sovereignty Matrix

Compares the core capabilities defining user sovereignty in account abstraction paradigms, moving beyond simple transaction signing.

Sovereignty DimensionExternally Owned Account (EOA)Smart Account (ERC-4337 / AA)Intent-Centric Account (Future State)

Transaction Logic

Single, atomic signature

Arbitrary bundled operations via UserOperation

Declarative outcome; solver competition (e.g., UniswapX, CowSwap)

Fee Payment Asset

Native chain token only (ETH, MATIC)

Any ERC-20 via paymasters

Any asset; sponsored or abstracted

Recovery / Social Auth

Private key seed phrase only

Multi-sig, social recovery (e.g., Safe), timelocks

Programmable policy engines (e.g., Lit Protocol)

Session Keys / Automation

None (per-tx signature)

Bounded-delegation sessions for dApps

Persistent, context-aware agent policies

Gas Cost Overhead

21,000 gas base

~42,000+ gas for UserOperation validation

Solver subsidy; user sees only end-to-end cost

Cross-Chain Native Action

Bridge & sign (manual, multi-step)

Atomic cross-chain bundles via CCIP, LayerZero

Single signed intent; settlement across any domain

Protocol Dependency

Core Ethereum protocol

ERC-4337 bundlers & paymasters

Solvers, intent mempools, SUAVE-like blockspace

deep-dive
THE EXECUTION GAP

Deep Dive: From Signatures to Sovereignty

Current EOA signatures grant blanket execution rights, creating a systemic security and UX failure that only executable intent solves.

Signatures are binary permissions. An Externally Owned Account (EOA) signature authorizes any transaction, creating an all-or-nothing security model. This forces users to delegate custody to centralized exchanges or custodial wallets, negating self-custody's core promise.

Intent frameworks shift the paradigm. Instead of signing a specific transaction, a user signs a declarative goal (e.g., 'swap ETH for USDC at best rate'). Protocols like UniswapX and CowSwap then compete to fulfill this intent via a solver network, separating declaration from execution.

This enables verifiable sovereignty. A user's signed intent is a bounded authorization, not a blank check. The execution path is determined by a competitive marketplace, not a single pre-defined contract. This is the foundation for account abstraction and smart contract wallets like Safe.

The evidence is in adoption. UniswapX processed over $7B in volume by abstracting cross-chain swaps into intents. This proves users prefer declaring outcomes over manually managing bridges like Across or LayerZero.

protocol-spotlight
FROM SIGNATURE TO SOVEREIGNTY

Protocol Spotlight: Building the Intent Execution Layer

Signing a transaction is a primitive, low-level command. True ownership means declaring a desired outcome and letting a competitive network of solvers figure out the optimal path.

01

The Problem: Signatures Are a Liability

Signing a raw transaction delegates full control of your assets to a single, pre-defined path. This exposes users to MEV extraction, failed transactions, and rigid logic.

  • ~$1B+ in MEV extracted annually from predictable on-chain flows.
  • Failed transactions still cost gas, a tax on user error.
  • Zero flexibility to adapt to better prices or liquidity discovered mid-execution.
$1B+
MEV Extracted
100%
Risk Assumed
02

The Solution: Declarative Intents

Instead of a 'how', you specify a 'what' (e.g., 'Swap X ETH for at least Y USDC on any chain'). A decentralized solver network competes to fulfill it optimally.

  • UniswapX and CowSwap pioneered this for swaps, batching orders off-chain.
  • Across Protocol uses a solver-based model for cross-chain intents.
  • Users get better prices and guaranteed execution, or none at all.
~20%
Better Price
0 Gas
On Failure
03

The Architecture: Solver Networks & Shared Order Flows

Intent execution layers like Anoma, SUAVE, and Essential separate declaration from execution. Solvers (searchers, market makers) bid on fulfilling intents in a competitive auction.

  • Creates a market for execution quality, not just block space.
  • Shared order flow aggregates user intent, increasing bargaining power.
  • Enables cross-domain atomicity (e.g., swap on Ethereum, bridge, deposit on Avalanche in one intent).
10x+
Solver Competition
Atomic
Cross-Chain
04

The Endgame: Programmable Intents & Agentic Wallets

Intents evolve into programmable policies. Your wallet becomes an autonomous agent executing complex strategies based on on-chain conditions.

  • Example: 'If ETH > $4k, sell 10% and bridge proceeds to Base to supply as collateral on Aave.'
  • **LayerZero's Messages and CCIP become intent transport layers.
  • Shifts the base-layer interaction from users to specialized intent executors.
24/7
Execution
Multi-Step
Strategies
05

The Risk: Centralized Sequencers in Disguise

If the solver network is permissioned or dominated by a few players, the intent layer recreates the centralized exchange problem. True decentralization of the solver set is non-negotiable.

  • Vitalik's 'enshrinement' debate: Should intent solving be a protocol-level function?
  • Requires cryptoeconomic security and solver slashing for malicious behavior.
  • Without it, you've just swapped Ethereum validators for Cartelized Solvers.
Critical
Decentralization
New Attack Vectors
Solver Risk
06

The Metric: Time-to-Finality vs. Time-to-Intent

The old paradigm measured block time and finality. The new paradigm measures Time-to-Intent: the latency between declaring an outcome and its guaranteed fulfillment.

  • Anoma targets sub-second intent propagation.
  • This metric encapsulates price discovery, cross-chain latency, and execution reliability.
  • The winning stack will optimize for this, not just L1 throughput.
<1s
Target Latency
New KPI
For UX
counter-argument
THE ARCHITECTURE

Counter-Argument: Isn't This Just Centralization?

Executable intent protocols decentralize execution, centralizing only the solvable problem of coordination.

The centralization is intentional. Current systems like UniswapX and CowSwap centralize the solver role to optimize for price and execution. This is a deliberate trade-off, moving complexity from the user's wallet to a specialized network layer.

Ownership shifts from signing to specifying. True ownership is control over outcome, not the mechanics. A user who signs a raw transaction for a cross-chain swap on LayerZero delegates all execution risk. An intent specifies the what, retaining sovereignty.

Decentralization is a spectrum. The solver marketplace model (e.g., Across Protocol) creates a competitive, permissionless layer for fulfillment. Centralization exists at the coordination layer, which is easier to decentralize over time than baking logic into immutable smart contracts.

Evidence: UniswapX has settled billions in volume via its centralized solver set, demonstrating users prefer guaranteed execution over the illusion of decentralized mechanics. The next step is decentralizing the solver role itself.

risk-analysis
FROM SIGNATURE TO EXECUTION

Risk Analysis: The New Attack Surfaces of Agency

Signing a transaction is no longer the final act of user agency; the execution environment is the new battleground.

01

The Problem: The MEV Sandwich is a Theft of Agency

Your intent to swap is broadcast, but your agency ends at the signature. A searcher front-runs your trade, manipulating the price you pay and stealing your value.

  • Cost: Extracts ~$1B+ annually from users.
  • Impact: User gets a worse price than their signed intent allowed.
$1B+
Annual Extract
>90%
of DEX Trades
02

The Solution: Executable Intents via SUAVE or UniswapX

Shift agency from signing a specific transaction to declaring a desired outcome. A solver network competes to fulfill it optimally.

  • Mechanism: User signs an intent, not a tx. Solvers like CowSwap or Across execute.
  • Result: MEV is internalized as user savings, not extracted.
~$200M
Saved for Users
0 Slippage
Guaranteed
03

The New Risk: Solver Collusion & Centralization

Agency is now delegated to a network of solvers. This creates a new attack surface: cartel formation and censorship.

  • Threat: Dominant solvers (e.g., in UniswapX) can collude to offer worse prices.
  • Vector: The solver auction becomes a single point of failure.
~3-5
Major Solvers
>60%
Market Share Risk
04

The Architectural Flaw: Cross-Chain Intents & Trusted Relayers

Intents spanning chains (via LayerZero, Axelar) reintroduce trusted intermediaries for execution. Your agency is only as strong as the relayer's honesty.

  • Failure Mode: A malicious or compromised relayer can censor or mishandle your cross-chain intent.
  • Example: A bridge intent relies on an off-chain Wormhole guardian network.
$2B+
Bridge TVL at Risk
7/15
Multisig Signers
05

The Solution: Cryptographic Proofs of Fulfillment

Replace trusted relayers with verifiable proofs. The user's agency is preserved because execution can be cryptographically verified after the fact.

  • Tech Stack: ZK-proofs (like in Aztec) or validity proofs for bridging.
  • Outcome: Users can trust the state transition, not the actor.
~10 min
Proof Finality
100%
Verifiable
06

The Ultimate Risk: Intent Language Itself

If the intent specification language is ambiguous or incomplete, solvers can legally fulfill your request in a suboptimal way you didn't foresee.

  • Attack: 'Best price' intent fulfilled on a low-liquidity, manipulated pool.
  • Need: A formal, unambiguous domain-specific language (DSL) for intents.
0
Standard DSL
High
Interpretation Risk
future-outlook
THE EXECUTION LAYER

Future Outlook: The Intent-Centric Stack

True ownership shifts from signing transactions to defining outcomes, requiring a new execution layer.

Ownership is execution control. Current wallets delegate execution logic to the signer, creating a user-hostile bottleneck. True ownership requires users to define what they want, not how to achieve it.

Intent abstraction replaces transaction assembly. Protocols like UniswapX and CowSwap demonstrate this shift: users submit desired outcomes (intents), and a solver network competes for optimal execution. This abstracts away gas, slippage, and MEV.

The wallet becomes a policy engine. Future wallets like Ambient or Essential will manage persistent intents and reputation scores, not just keys. They enforce user-defined constraints across chains via systems like Across and LayerZero.

Evidence: UniswapX has settled over $7B in volume, proving demand for intent-based swaps. This model will expand to complex DeFi strategies, moving execution risk from the user to the network.

takeaways
FROM SIGNATURES TO SOVEREIGNTY

Key Takeaways for Builders and Investors

Signatures grant permission; executable intent grants agency. The next evolution of user ownership is moving from passive approval to programmatic control.

01

The Problem: Signatures Are a Blank Check

Signing a transaction is binary and context-blind. Users delegate full control, enabling MEV extraction and rug pulls. This is the root cause of ~$1B+ in annual MEV losses and countless approval exploits.

  • Vulnerability: Single signature can drain entire wallet.
  • Inefficiency: Requires manual, per-transaction interaction.
$1B+
Annual MEV
100%
Exposure
02

The Solution: Programmable Intent Standards

Frameworks like UniswapX and CowSwap's CoW Orders allow users to declare a desired outcome (e.g., 'get the best price for X token'). Execution is delegated to a competitive solver network.

  • User Sovereignty: Define rules, not raw transactions.
  • Efficiency Gains: Solvers compete, improving price and reducing gas costs by ~20-50%.
20-50%
Cost Savings
Solver Net
Execution
03

The Architecture: Intent-Centric Infra Stack

A new stack is emerging to compose, route, and settle intents. This includes intent expression languages, solver networks like Across, and shared settlement layers.

  • Composability: Intents become portable assets across dApps.
  • Market Structure: Creates a $10B+ TAM for intent matching and execution.
New Stack
Emerging
$10B+
TAM
04

The Investment Thesis: Own the Settlement Layer

While intent expression is fragmented, settlement is a natural monopoly. Protocols that become the canonical layer for intent resolution—like Anoma or specialized L2s—capture the fundamental value.

  • Moats: Network effects of solvers and users.
  • Revenue: Fees on matched and settled intents.
Monopoly
Potential
Fee Capture
Model
05

The Builder's Playbook: Abstract Signatures Away

The winning UX doesn't ask for signatures; it asks for goals. Build applications where the user's 'transaction' is a declarative statement, with execution handled by a dedicated, competitive backend.

  • Product Shift: From 'Connect Wallet & Sign' to 'State Your Goal'.
  • Tech Stack: Integrate intent SDKs from UniswapX, CowSwap, or Across.
UX Shift
Paradigm
SDK First
Integration
06

The Risk: Centralization of Solvers

Delegating execution to a solver network creates a new centralization vector. If a few solvers (e.g., via LayerZero or Across) dominate, they become the new rent-extracting intermediaries.

  • Mitigation: Requires robust solver decentralization and cryptographic proofs of optimal execution.
  • Watch Metric: Gini coefficient of solver market share.
New Vector
Centralization
Gini Coef.
Key Metric
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