Technology

Technology built for parallel settlement

AESC is engineered around a simple premise: if the physical economy operates through concurrent events, then the network responsible for settling those events cannot remain serial.

Overview

A layered architecture for the physical economy

AESC is designed as a layered settlement stack rather than a monolithic throughput claim. Its architecture brings together execution, consensus, state storage, payment abstraction, interoperability, and compliance into a single protocol framework.

At the execution layer, AESC identifies dependencies and processes independent operations in parallel. At the consensus layer, pipelined BFT reduces latency with deterministic finality. At the economic layer, x402 enables stablecoin-native flows.

Execution
DAG + OCC
Consensus
Pipelined BFT
Storage
IAVL State
Economic
x402 Abstraction
Interop
EVM + IBC

Execution Engine

Parallel execution without forcing unrelated events into a single queue

The execution engine analyzes read and write sets at the proposal stage. When transactions do not conflict, the network places them into separate execution lanes.

Parallel Execution Engine
4 concurrent lanes
L1
Sensor A
IoT D
Feed G
L2
Pay B
Trade E
Settle H
L3
Asset C
Mint F
Transfer I
L4
KYC J
Audit K
Verify L
Sub-second finality ✓
DAG-driven dependency inference
A directed acyclic graph model distinguishes conflict from non-conflict, rather than assuming universal contention.
Optimistic concurrency control
Transactions execute speculatively and validate before commitment. Conflicts downgrade and reschedule.
Storage-slot granularity
Contention detection refined beyond contract level — users touching different state portions process in parallel.
Propose
Pre-vote
Pre-commit
Finalize
Block N
Pro
Pre
Pre
Fin
Block N+1
Pro
Pre
Pre
Block N+2
Pro
Pre
Time →
Sub-second deterministic finality

Consensus

Fast settlement requires finality, not just speed claims

Pipelined BFT consensus overlaps block lifecycle stages to reduce stop-and-wait inefficiency.

Pipelined BFT
While one block completes consensus, subsequent work is already prepared.
Single-slot finality
Deterministic — a finalized settlement serves as a strong operational and legal anchor.

State Design

State design for auditability, proofs, and operational efficiency

AESC uses IAVL-based structures for verifiable state commitments and historical queries, with tiered storage for operational efficiency.

Root
H(0..3)
H(4..7)
S0
S1
S2
S3
Hot State
Active accounts, recent blocks
Warm State
Recent history, proofs
Cold Archive
Historical, prunable
Merkle-proof support
Proof-friendly verification for low-resource devices and external validation. Supports a broader range of interaction models than full-node-only design.
State tiering and pruning
High-frequency state stays optimized for performance. Older history migrated or pruned per network policy, lowering overhead without abandoning auditability.

Payment Abstraction

Removing blockchain payment friction through x402

A payment abstraction layer for stablecoin-based intent flows, removing the requirement that every user hold native tokens.

x402
Payment Flow
User
Signs stablecoin payment intent
Relayer
Packages tx & abstracts gas
Network
Verifies & settles atomically
Stablecoin in
Gas abstracted
Atomic settle
Stablecoin-native usage
Stablecoins as first-class payment instruments — predictable accounting for businesses.
Relayer-assisted gas abstraction
Relayers advance gas on behalf of users and recover costs within the same transaction flow.
Enterprise API compatibility
Abstracts complexity for backend services, API-connected systems, and industrial workflows.

Interoperability

Open infrastructure with familiar developer pathways

AESC is built to interoperate with established developer standards and broader liquidity environments.

EVM-equivalent execution
Developers using Solidity, MetaMask, Foundry, and Hardhat can approach AESC with lower migration cost. Existing workflows and smart contract patterns adapt efficiently.
Solidity
Hardhat
MetaMask
EVM Equivalent
AESC
Settlement Layer
IBC Protocol
Cosmos Hub
Osmosis
Other IBC
IBC connectivity
Cosmos-native interoperability allows regulated assets and settlement instruments to participate in broader cross-chain environments where appropriate.

Compliance

Designed for regulated value flows, not regulatory avoidance

AESC introduces mechanisms that allow identity checks, transfer restrictions, and issuance rules to be incorporated into the asset lifecycle itself — critical for tokenized trade documents, regulated yield assets, and sector-specific RWA issuance.

The protocol treats compliance as core infrastructure, not an external wrapper.

See how the architecture translates into real-world settlement