Documentation & SDK

Infrastructure-First Design

All components are designed as foundational infrastructure rather than end-user applications. This approach ensures composability with institutional systems and long-term ecosystem alignment.

Deterministic Execution

Every operation produces predictable, verifiable outcomes. State transitions follow deterministic paths that can be independently verified through on-chain program logic.

Non-Custodial Architecture

Zero custody requirements throughout the system. All operations maintain user sovereignty with signing authority never transferred to intermediate parties.

Yield as Infrastructure

Yield is not a product feature but a protocol-level consequence of execution efficiency and liquidity depth. This creates persistent value generation independent of market conditions.

Account Architecture

State is organized into account structures optimized for minimal rent and efficient access patterns. All accounts follow deterministic derivation paths for predictable addressing.

Instruction Set

Program instructions follow a standardized interface pattern with explicit parameter validation and error handling. All instructions are idempotent where operationally appropriate.

Pool Integration

Direct integration with Solana-native liquidity pools through standardized interfaces. Multiple pool types supported for optimal routing:

• Constant product AMMs for standard token pairs
• Concentrated liquidity pools for capital efficiency
• Stable pools for correlated asset pairs

Routing Engine

Intelligent routing across multiple liquidity sources with real-time depth calculations. Optimizes for minimal price impact and execution certainty.

Slippage Management

Infrastructure-level slippage tolerances defined through program parameters. All operations include explicit bounds checking before execution.

Execution Efficiency Yield

Value capture from optimized execution paths and transaction batching. Efficiency gains distributed as protocol-level returns.

Liquidity Depth Returns

Returns derived from providing infrastructure-level access to deep liquidity. Not dependent on individual trading activity but on systematic market access.

Persistence Mechanisms

Protocol enforces yield distribution through deterministic rules independent of external market volatility. Designed for predictable institutional integration.

Solana Runtime Security

System assumes correct operation of Solana's runtime environment including account isolation, rent mechanics, and program execution sandboxing.

Cryptographic Primitives

Relies on standard cryptographic operations provided by Solana runtime. No custom cryptography implemented.

Non-Custodial Guarantees

Security model eliminates custody risk through architectural design. All signing authority remains with end users throughout all operations.

Is Hawasium a DeFi protocol?

Hawasium is infrastructure, not a protocol. It provides foundational components for systems that require execution and liquidity primitives.

Are smart contracts audited?

The architecture is designed for auditability. Formal audit status should be verified independently before institutional integration.

What are the system requirements for integration?

Integration requires Solana RPC access, standard wallet signing capabilities, and understanding of Solana account models. See SDK documentation for technical requirements.

How is yield calculated and distributed?

Yield formation is a conceptual model describing protocol-level value capture. Specific distribution mechanisms are defined through governance and institutional requirements.

What is the governance model?

Governance structures are designed for institutional alignment and long-term ecosystem coordination. Specific mechanisms are subject to ongoing development.

Execution Interface

The execution interface provides methods for constructing and submitting transactions to Hawasium infrastructure.

import { HawasiumClient } from '@hawasium/sdk'

// Initialize client
const client = new HawasiumClient({
  rpcUrl: 'https://api.mainnet-beta.solana.com',
  commitment: 'confirmed'
})

// Execute operation
const result = await client.execution.submit({
  operation: 'transfer',
  params: {
    amount: 1000000,
    destination: publicKey
  }
})

Liquidity Access Layer

Access integrated liquidity pools and routing mechanisms for optimal execution.

import { HawasiumClient } from '@hawasium/sdk'

const client = new HawasiumClient({ /* config */ })

// Query liquidity depth
const depth = await client.liquidity.getDepth({
  tokenA: 'SOL',
  tokenB: 'USDC',
  pools: ['pool1', 'pool2']
})

// Calculate optimal route
const route = await client.liquidity.findRoute({
  inputToken: 'SOL',
  outputToken: 'USDC',
  amount: 5000000,
  slippage: 0.01
})

Yield Primitives

Interfaces for interacting with yield formation mechanisms (conceptual implementation).

import { HawasiumClient } from '@hawasium/sdk'

const client = new HawasiumClient({ /* config */ })

// Query yield parameters
const yieldInfo = await client.yield.getParameters({
  account: userPublicKey
})

// Conceptual yield calculation
const projected = client.yield.calculateProjected({
  principal: 100000,
  duration: 30 * 24 * 60 * 60, // 30 days
  efficiency: yieldInfo.efficiency
})

Private Key Management

Never expose private keys in client-side code. Use secure key management systems for production environments. The SDK does not handle key storage.

RPC Endpoint Security

Use authenticated RPC endpoints for production. Public endpoints may be rate limited or unreliable. Consider running dedicated infrastructure for institutional requirements.

Transaction Simulation

Always simulate transactions before submission in production. The SDK provides simulation utilities for pre-flight verification.

Dependency Auditing

Regularly audit SDK dependencies for security vulnerabilities. Use tools like npm audit or Snyk for automated scanning.