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API-Hunter

API-Hunter

API Hunter - Product Specification and Developer Guide

  • API Hunter is Netrum’s developer-facing gateway that converts raw node primitives into intuitive, secure, and production-grade APIs. It is the essential bridge between the protocol-level node layer and the rich ecosystem of Web2, Web3 and voice-first applications that will run on Netrum. API Hunter removes the operational burden of running nodes, normalizes cross-chain and cross-client semantics, and embeds Netrum’s provenance and attestation model into every response so builders obtain reliable, auditable data and actions with minimal integration effort.

1. Why This Matters


  • • Foundation to product mapping: Node software secures consensus, verifies transactions and synchronizes state. API Hunter translates those low-level capabilities into stable interfaces that developers can rely on.

  • • Reduce friction: Developers do not need to operate node fleets, manage upgrades or reconcile subtle RPC differences across EVM and non-EVM clients. API Hunter manages those concerns.

  • • Enable new UX: Voice-first controls, attested query responses and deterministic execution traces make it possible to build higher-order experiences such as voice wallets, auditable merchant flows and AI-driven automation without reimplementing infrastructure.

  • • Auditability and trust: Every API response can carry a verifiable attestation or anchor reference to ensure outcomes can be audited, replayed and trusted by third parties.

2. Product positioning and scope

  • API Hunter is a modular gateway and developer platform that provides:

  • • Canonical JSON-RPC facade and REST alternatives for common tasks.

    • High-level specialized endpoints for common developer needs, e.g., rich transaction simulation, canonical event extraction, balance histories, and automated Merkle proof generation.

    • Voice and intent-native endpoints: voice transcript to canonical intent, intent validation, and safe execution.

    • Attestation services: optional verifier-signed proofs attached to responses.

    • Edge caching, request deduplication and adaptive routing to the node mesh for resiliency and performance.

    • Developer tooling: SDKs, CLI, sandbox consoles and observability dashboards.
  • API Hunter is not a monolithic RPC provider. It is an orchestration layer that federates best-available backends, enforces policy, and produces auditable outputs.

3. Architecture overview

  • Logical components
  • 1. API Edge Gateway

    • Authentication, rate limiting, request validation and front-line caching.

    • Accepts JSON-RPC, REST and WebSocket requests.

  • 2. Intent Layer

    • Converts voice or natural language into a canonical intent schema used by higher-level APIs.

    • Performs entity extraction, parameter validation and preflight authorization.

  • 3. Orchestrator and Planner

    • Decides routing: edge cache, read-only nodes, verifier nodes, merchant-managed nodes or third-party RPC providers.

    • Selects attestation policy based on request headers or merchant profile.

  • 4. Backend Federation

    • A pool that includes Netrum edge nodes, permissionless Light/Full nodes, merchant nodes, and trusted third-party RPC providers.

    • Handles read replica selection, write submission and fallback strategies.

  • 5. Verifier Subsystem

    • For attested responses, a verifier committee re-executes required checks and issues signed attestations.

  • 6. Response Composer

    • Merges outputs, attaches metadata, and optionally appends attestation roots and anchor references.

  • 7. Audit Store and Anchoring

    • Persists trace IDs, signed receipts and on-chain anchors for high-assurance flows.

  • 8. Developer Portal and SDKs

    • API docs, API keys, usage dashboards, and code samples.
  • Data and control flows

  • • Read request: Client → Edge → Orchestrator → Best backend → Response Composer → Client.

    • Attested read: Orchestrator triggers verifier re-execution → Verifier signs attestation → Attach attestation to response → Anchor if requested.

    • Write/submit: Client → Edge → Orchestrator → Submission path (with optional TSS approval or human-in-loop) → Mempool/relayer → Inclusion → Post-inclusion attestation.

4. Design principles

  • 1. Consistency

    • Provide canonical semantics for the most common methods across supported chains.

  • 2. Determinism Where It Matters

    • For audit-sensitive flows, ensure reproducible outputs remain reproducible across verifier re-executions.

  • 3. Configurable Assurance

    • Allow clients to choose latency versus verifiability trade-offs.

  • 4. Developer Ergonomics

    • Idiomatic SDKs, simple error model and best-practice retries/backoff.

  • 5. Security-First

    • Default to human confirmation or multiple factors for value-moving actions.

  • 6. Transparent Economics

    • Clear, measurable pricing and metering for premium services such as attested responses, priority RPC and AI inference.

Evolution Path - from nodes to apps

  • Each stage intentionally reduces systemic risk while expanding the surface for developer creativity and commercial adoption.

1. Node Layer (Now)

  • The Node Layer is the system’s foundational substrate. It implements peer-to-peer synchronization, transaction verification, consensus and block finality. Its responsibilities include:

  • • Ensuring consistent state across participants so every actor sees the same ledger.

    • Validating transactions and enforcing protocol rules at the execution layer.

    • Providing the low-level primitives used by wallets, relayers and verifier nodes.

    • Producing signed, auditable artifacts that downstream systems can reference for proof and reconciliation.
  • A robust node layer turns abstract protocol promises into real, repeatable guarantees. It is the difference between a speculative design and an operational network where wallets hold real value, transactions are final, and auditors can reproduce events.

2. Node Layer (Now)

  • API Hunter sits directly above the node layer and is the strategic interface for builders. It converts raw node primitives into stable, developer-friendly APIs so teams can focus on product logic rather than node ops. Key attributes:

  • • Canonical abstraction: normalizes differences between client implementations and chains into a consistent API surface.

    • Developer ergonomics: provides JSON-RPC passthrough, REST facades, high-level endpoints (simulation, attested receipts, balance histories), SDKs and CLI tools.

    • Assurance controls: exposes policy-driven assurance levels so clients can choose latency versus cryptographic verifiability.

    • Attestation-first responses: optionally attach verifier-signed proofs and anchor references to critical reads and writes.
  • API Hunter removes operational friction, shrinks time to market for dApps and voice-first experiences, and embeds Netrum’s auditability and provenance model into every integration.

3. Apps & Governance (Future)

  • Once the infrastructure and developer gateway are stable, Netrum moves into user facing products: wallets, explorers, governance dashboards, commerce modules and social primitives. These applications will:

  • • Empower users to exercise true ownership of digital assets and identity.

    • Provide governance interfaces that let stakeholders propose, debate and ratify protocol changes with on-chain traceability.

    • Enable enterprises to integrate Netrum services into existing back office systems with compliance and audit bundles included.
  • This staged progression creates healthy separation of concerns: infrastructure first, developer enablement second, consumer and enterprise adoption third. That sequencing reduces systemic risk while maximizing long-term utility.

Why developers should join the Testnet early

  • Joining Netrum in the Testnet stage is not merely an opportunity to experiment. It is an opportunity to shape standards, secure early economic upside, and develop domain expertise that becomes a sustained competitive advantage. The concrete benefits are:

1. Learn the Protocol at the Metal

  • Early contributors gain intimate knowledge of protocol flows before abstractions appear. That understanding delivers practical advantages:

  • • Better debugging and optimization because you know what happens under the API surface.

    • Ability to design resilient integrations that anticipate reorgs, mempool dynamics and attestation timing.

    • A head start on building components that later become production hardened libraries or commercial products.

2. Influence API Design and Standards

  • The Testnet is the design laboratory for API Hunter and adjacent standards. Active participants provide feedback that becomes code and policy:

  • • Shape canonical endpoints, parameter semantics and assurance tiers to match real developer needs.

    • Help define developer ergonomics such as SDK patterns, idempotency semantics and error models.

    • Contribute to attestation formats and manifest schemas so auditability fits your enterprise requirements.
  • Your feedback is not merely heard, it is codified into interfaces that every integrator will later consume.

3. Earn Early Economic and Governance Upside

  • Testnet activity is rewarded in NPT and confers priority for future conversion, allocation and governance roles:

  • • Eligibility for task-based incentives, node rewards and leaderboards that translate into NPT allocations.

    • Higher priority on swap and conversion queues at mainnet launch.

    • Reputation and recorded contribution history that factors into future governance roles and grant eligibility.
  • This is a practical pathway from contributor to stakeholder. The combination of technical contribution and recorded provenance positions early participants as recognized builders and decision makers.

Next Steps

Now that you have read everything, here's what you can do next: