Roadmap
Overview
The INCOG AI protocol is being built in deliberate, sequenced phases. Each phase delivers a self-contained, functional product while establishing the technical infrastructure required for the next phase. This sequencing reflects a deliberate architectural philosophy: no phase ships until the previous phase's infrastructure has been validated in production, and no phase makes claims about capabilities that have not yet been built.
The roadmap is honest about current state. It does not present speculative future capabilities as existing infrastructure. Phases marked as planned or in development are engineering specifications, not shipped systems.
Phase 01 — Privacy URL Shortener
StatusLive
Overview: The first INCOG AI product is a privacy-preserving URL shortener. Every link generated strips tracking parameters, masks referrer headers, and logs zero click data. This product is intentionally narrow in scope: it delivers concrete, verifiable privacy value without requiring any of the complex distributed infrastructure that later phases depend on.
What it does:
- Removes all known tracking parameters (UTM tags, fbclid, gclid, msclkid, mc_eid, and 25+ others) from submitted URLs
- Generates clean short links in the
incog.ai/s/namespace - Routes link redirects without logging the clicking user's IP, browser, or device characteristics
- Retains zero click analytics data by architecture — there is no click logging system
Why it matters for the protocol:
The URL shortener is the first demonstration that INCOG AI ships working privacy products before building a narrative. It establishes the team's execution capability, seeds the early user base, and provides a low-friction entry point for users who may later adopt the Privacy Browser and Mesh Network.
Technical infrastructure delivered:
- Privacy-preserving redirect handling
- Tracking parameter stripping logic (reused in browser layer)
- Referrer header masking
Phase 02 — Privacy Browser
StatusIn active development
Overview: The INCOG Privacy Browser is the core product of the protocol — a hardened browser client with privacy protection built into the execution model rather than added as an extension layer. This is a long build. The browser must modify behavior at the engine level, and engine-level modifications require rigorous testing across the full diversity of web content.
Delivery scope:
Fingerprint reduction engine:
- Canvas API normalization at the rendering pipeline level
- WebGL parameter table-based normalization
- AudioContext output normalization
- Navigator API normalization (platform, languages, userAgent, hardwareConcurrency, deviceMemory)
- Screen and window dimension normalization
- Performance timing precision reduction
Session-level isolation:
- Per-context, per-session storage partitioning (cookies, localStorage, sessionStorage, IndexedDB, Cache API)
- Service worker isolation model
- Cross-origin state leakage prevention
- Storage clearing on session termination
Telemetry blocking:
- Request-layer interception of known telemetry endpoints
- Analytics SDK pattern detection and blocking
- Referrer header stripping and normalization
- Third-party cookie blocking
Encrypted DNS:
- DNS-over-HTTPS integration with configurable resolver
- DNS query isolation from browsing context identifiers
- DNSSEC validation
Initial relay integration (limited, configurable):
- Basic relay routing for sensitive browsing contexts
- Relay client bundled with browser distribution
- User-controlled relay enable/disable
Why this takes time: Modifying a browser engine without breaking the web is a substantially more difficult engineering challenge than building an extension. The session isolation model, in particular, must be carefully validated to ensure it does not break legitimate cross-site authentication patterns, OAuth flows, and other scenarios where some cross-origin state sharing is both intended and necessary.
Milestone targets:
- Alpha release to closed technical testers: Early development phase
- Beta release to early access registrants: Development milestone
- Public release: To be determined based on alpha/beta validation
Phase 03 — Relay Testnet
StatusPlanned — begins after browser Phase 02 reaches beta
Overview: The INCOG Mesh Network testnet is the first deployment of the decentralized relay routing infrastructure. The testnet operates with a limited set of vetted node operators and browser clients, validating the relay protocol, reward verification system, and circuit construction algorithms under real-world network conditions.
Delivery scope:
Relay protocol implementation:
- Three-hop circuit construction with full layered encryption
- Fixed-size cell protocol with padding
- ECDH-based per-session key exchange
- Circuit lifecycle management (construction, rotation, teardown)
- Path failure detection and automatic reconstruction
Relay directory system:
- Directory authority infrastructure
- Node capability announcement and health monitoring
- Threshold-signed directory snapshot distribution
- Client-side directory synchronization
Node operator tooling:
- Relay node software (testnet release) for server deployment
- Node registration interface
- Operator monitoring dashboard
- Testnet reward tracking (non-mainnet tokens)
Testnet reward system:
- Cross-attestation verification system
- Throughput measurement and verification
- Uptime tracking and scoring
- Test token distribution to verify reward calculation logic
Testnet operator requirements:
- Technically sophisticated operators (server-class deployments for testnet)
- Commitment to report bugs and protocol anomalies
- Agreement to testnet-only reward terms (no mainnet token equivalence)
Why testnet before mainnet: Relay protocol bugs discovered in production with real token rewards and real user privacy at stake are significantly more damaging than bugs discovered in a controlled testnet environment. The testnet allows protocol validation without the full consequences of errors.
Phase 04 — Node Hardware Pilot
StatusPlanned — begins after relay testnet validation
Overview: The hardware pilot introduces the first INCOG-certified consumer relay hardware, enabling home users to contribute relay capacity without server-class technical expertise. The hardware pilot begins with a limited production run of certified devices distributed to a qualified operator cohort.
Delivery scope:
Hardware certification program:
- Hardware certification specification finalized
- Manufacturing partner certification process
- Secure boot chain and firmware signature infrastructure
- Hardware security element integration and testing
First certified hardware:
- Production run of INCOG-certified home router hardware
- Plug-and-play deployment targeting non-technical operators
- Hardware-backed cryptographic attestation capability
- Secure OTA firmware update mechanism
Hardware-tier reward structure:
- Hardware attestation verification in reward contract
- Tiered reward multiplier for certified hardware vs. software-only nodes
- Manufacturing certification fee mechanism
Mainnet relay rewards launch:
- Mainnet $INCOG relay reward issuance begins
- Cross-attestation verification on mainnet
- First monthly reward distribution cycle
Operator onboarding infrastructure:
- Self-service node registration portal
- Hardware setup guide and support documentation
- Operator community channels
Phase 05 — Wallet Integration
StatusPlanned — begins after relay infrastructure is stable
Overview: The INCOG Wallet module is integrated natively into the Privacy Browser, providing privacy-preserving on-chain interaction that extends the browser's privacy guarantees to blockchain transactions.
Delivery scope:
Core wallet functionality:
- BIP-32/BIP-44 HD key derivation with context isolation extension
- Address rotation by default for all receive operations
- Client-side transaction signing
- Multi-asset support (EVM-compatible chains as primary)
Privacy features:
- Address clustering resistance (UTXO management, change output discipline)
- Relay-routed transaction broadcasting
- Transaction timing randomization
- Dust defense mechanism
Browser integration:
- Browser chrome wallet interface (isolated from web content)
- Permission-gated web application wallet API
- Session-scoped wallet access grants
- $INCOG reward claim integration (claim relay node rewards from browser)
Security:
- Encrypted seed storage with Argon2id key derivation
- Hardware key isolation where browser execution environment supports it
- Explicit confirmation UI for all signing operations
Phase 06 — Private Inference Layer
StatusPlanned — begins after wallet integration is complete
Overview: The INCOG LLM module delivers privacy-preserving language model inference capabilities embedded in the browser. Local inference provides the strongest privacy guarantees; relay-routed inference provides a fallback for hardware-constrained devices.
Delivery scope:
Local inference runtime:
- WebAssembly + WebGPU inference runtime
- Curated model library (sub-7B parameter models for consumer hardware)
- Context management with session-scoped memory only
- Model verification and integrity checking
Relay-routed inference:
- Inference provider integration with relay-routed request routing
- Provider selection interface (configured by relay routing)
- Mode selection UI (local vs. relay-routed)
Browser integration:
- Browser chrome inference interface (isolated from web content)
- Permission-gated browser inference API for web applications
- Multi-session inference isolation
Privacy validation:
- Zero persistent prompt storage audit
- Network isolation validation (local mode)
- Content isolation validation (no web content API leakage)
Phase 07 — Global Mesh Expansion
StatusLong-term — begins as network matures
Overview: Following the successful deployment of the relay testnet and hardware pilot, Phase 07 focuses on scaling the relay network to global coverage — targeting 1,000+ active relay nodes across all major geographic regions and autonomous systems.
Focus areas:
Geographic expansion:
- Structured outreach to underrepresented regions
- Operator community development in target regions
- Hardware distribution partnerships for high-priority regions
Protocol optimization:
- Performance optimization of relay routing based on production data
- Dynamic geographic multiplier tuning based on network distribution metrics
- Circuit construction algorithm refinement based on real-world path failure patterns
Resilience improvements:
- Cover traffic implementation at sufficient network scale
- Relay directory decentralization (DHT-based announcement system)
- Exit node policy framework refinement
Governance activation:
- Full on-chain governance system activation
- Community governance of relay network parameters
- Protocol upgrade process formalization
Ongoing: Protocol Research
Parallel to product development, the INCOG protocol team conducts ongoing research into future protocol extensions:
- Zero-knowledge relay verification: ZK-SNARK-based throughput attestations that allow reward verification without revealing participation metadata.
- Private information retrieval for directory: PIR-based relay directory queries to prevent directory queries from revealing node selection intent.
- Mixnet protocol upgrade: Architecture for upgrading the relay protocol to a mixnet model for stronger anonymity at higher latency tolerance.
- Confidential inference integration: Hardware TEE-based inference for provider-side content privacy in relay-routed inference mode.
These are research directions, not product commitments. They will be incorporated into the protocol roadmap as their technical maturity and resource availability allow.
Roadmap Governance
The roadmap is subject to revision based on:
- Technical discoveries during development
- Community governance decisions affecting priorities
- Resource and timing realities
- New protocol research findings
Significant roadmap changes will be communicated to the community through protocol governance channels before implementation. The protocol team is committed to honest communication about progress, setbacks, and timeline changes — no phase will be represented as complete until it is demonstrably deployed and functional.
