BIWEEKLY
REPORT #6

Executive Summary

Tokamak Network: 1,328,752 Code Changes Across 33 Active Projects

Net codebase growth of +451,004 lines reflects sustained delivery and ongoing refactoring From 2026-04-01 to 2026-04-15, engineering activity spanned 33 Active Projects and produced 1,328,752 Code Changes. The work resulted in +889,878 lines added and -438,874 lines deleted, indicating substantial new implementation alongside significant cleanup and restructuring. The net change of +451,004 lines shows overall expansion of the codebase during the period. These figures represent the aggregate volume of code modifications across all active efforts, capturing both feature development and maintenance-driven improvements.

🗺️ Ecosystem Landscape

scatter-dex is the codebase for Tokamak Network’s zkScatter decentralized exchange implementation, covering ZK-based private trading and related client, relayer, and indexer components. During this period, the repository focused on expanding ZK-compliant trading workflows, introducing mobile and shared orderbook capabilities, and removing legacy non-ZK trade paths. This work matters because it advances a privacy-preserving DEX stack with clearer compliance signaling and more complete user-facing interfaces (web and mobile) for trading, depositing, and claiming.

Key Accomplishments

• Implemented DEX trade mode and revenue handling*
• Introduced compliance-relevant circuit signaling*
• Established a shared orderbook service*
• Built a mobile app scaffold and core private-trading flows*
• Added ZK private escrow and settlement components*
• Removed legacy non-ZK trade paths and legacy settlement code*
• Consolidated and cleaned up frontend structure*

Code Analysis

The +524,614 / -342,643 (net +181,971) line movement indicates simultaneous expansion and consolidation. Large additions correspond to newly introduced components and workflows: mobile application scaffolding and screens for deposit/trade/claim flows (multiple feat(mobile) commits), ZK private escrow and settlement implementation (commit feat(zk): add ZK private escrow and settlement), shared orderbook server creation (commit feat(shared-orderbook)), and new indexer APIs and relayer client functionality (PRs #343 and #346). Additions also reflect protocol-level changes such as new circuit/contract signals for compliance (commit adding pubKeyBind) and trade mode/revenue plumbing via FeeVault and platformRevenue support (commit DEX Trade mode + FeeVault platformRevenue). The substantial deletions reflect deliberate simplification and restructuring: removal of the non-ZK “plain trade” code paths across settlement, relayer, and frontend (commits removing non-ZK plain trade components), and removal of legacy settlePrivate paths (commit remove legacy settlePrivate code path). Frontend consolidation (v1/v2 into a unified app structure) contributed further churn by relocating and cleaning files, while matcher refactoring and circuit artifact refreshes represent ongoing protocol and tooling iteration (commits drop maxFee from feasibility and refresh circuit artifacts after maxFee cap). Overall, the pattern suggests the project is moving from parallel legacy/experimental paths toward a more unified ZK-focused architecture, while investing in usability (mobile/web UI), operational visibility (leaderboard/activity), and performance (asset caching, memory reclamation).

Next Steps

Continue expanding the settlement/indexer/relayer feature set beyond the current “Phase” deliverables (e.g., additional settlement APIs and relayer integrations) and iterate on mobile and frontend UX/performance based on the newly consolidated codebase and ZK asset-loading improvements.

This repository implements an “enshrined” Verifiable Random Function (VRF) stack intended for integration with OP Stack-based chains in the Tokamak ecosystem. The work spans onchain contracts (including a predeploy), cryptographic VRF libraries, and supporting infrastructure (TEE-oriented services, testing, and demos). It matters because verifiable randomness is a foundational primitive for fair onchain games, sampling/lotteries, and other applications that require publicly verifiable, bias-resistant random outputs.

Key Accomplishments

• Implemented a predeployed VRF contract*
• Introduced a Foundry-based contracts workspace and core interface*
• Built an ECVRF library and precompile verification path*
• Added a Go implementation for ECVRF-SECP256K1-SHA256-TAI*
• Established fork configuration and OP Stack integration workstream*
• Developed TEE enclave interfaces and services*
• Improved gRPC developer ergonomics and attestation hooks*

Code Analysis

The very large net code increase (+72,363) primarily reflects first-time introduction of substantial new components across several layers of the stack. On the onchain side, the repository added a full PredeployedVRF predeploy contract and a Foundry project with an IEnshrainedVRF interface, which typically brings in contract code, build configuration, and test scaffolding (feat(contracts): implement PredeployedVRF predeploy contract; feat(contracts): add Foundry project and IEnshrainedVRF interface). On the cryptography side, the additions include an ECVRF library, verification of a precompile, and a Go implementation of the ECVRF suite, accompanied by extensive tests, fuzzing targets, and benchmarks—together accounting for a meaningful portion of the added lines while materially increasing correctness confidence (feat(ecvrf): implement ECVRF library and verify precompile; feat(ecvrf): implement ECVRF-SECP256K1-SHA256-TAI Go library; test(ecvrf): add comprehensive tests, fuzz targets, and benchmarks). Additions also include operational infrastructure for TEE-backed proving: enclave protocol definitions, a gRPC server, and gRPC reflection plus developer attestation support, indicating a multi-mode design where proving can be abstracted and potentially moved across environments (feat(vrf): add TEE enclave proto and update submodule; feat(vrf): add TEE enclave gRPC server; feat(vrf): add gRPC reflection and dev attestation). The presence of OP Stack integration work, E2E tests, and a security audit checklist signals that the repository is moving beyond isolated components toward deployability and review readiness (feat: add OP Stack integration, E2E tests, and security audit checklist). Deletions are comparatively modest (-1,009) and are consistent with documentation cleanup and consolidation—e.g., streamlining the README and aligning the spec with implementation—plus a refactor that reduced and reorganized code around a proving interface (docs: streamline README with operating modes; docs: align spec with implementation; refactor(vrf): abstract VRF proving behind interface for TEE support). Overall, the code churn pattern is characteristic of an implementation-buildout phase that is simultaneously adding core functionality and investing in test coverage and integrator-facing materials.

Next Steps

Near-term work is indicated by the recently added OP Stack integration artifacts, E2E tests, and security audit checklist, suggesting continued hardening and verification activities as integration proceeds (feat: add OP Stack integration, E2E tests, and security audit checklist). Additional iteration is also implied by the ongoing spec/document alignment and expanded demos/tests, which typically accompany integration feedback and pre-deployment review (docs: align spec with implementation; docs: add testing and demo guide).

oracle-exchange is a repository that combines smart contracts and a web frontend to support an oracle-driven exchange experience, with a specific focus on “Flash” binary options market flows. Within the Tokamak ecosystem, it matters because it pairs onchain market mechanics (including reveal and redemption flows) with a user-facing interface that guides market creation, participation, and transaction sequencing. For users and stakeholders, the work in this period reflects an effort to stand up a functioning MVP-style product surface along with developer-oriented documentation and testing.

Key Accomplishments

• Established the baseline project structure across contracts and frontend**
• Implemented a keeper-driven oracle reveal flow with automated redemption**
• Rebuilt the frontend around a “Flash” binary options arena concept**
• Refined and modularized the FlashArena and supporting assets**
• Expanded developer documentation with a progressive-disclosure index**
• Strengthened network and wallet interaction safeguards in the frontend**
• Refactored frontend architecture to reduce component complexity and streamline transactions**

Code Analysis

The net change of +35,703 lines (from +52,971 added and -17,268 deleted) is consistent with a repository moving from initial scaffolding into an integrated MVP with substantial UI and documentation content. The large addition volume aligns with (1) the initial project setup spanning contracts and frontend (“chore: initial project setup…”), (2) major feature work in oracle mechanics (“feat(oracle): add keeper-driven reveal flow with auto-redeem”), (3) extensive frontend rebuilds and redesigns (“rebuild frontend as Flash binary options arena”, “redesign UI with exchange-grade interface”, and multiple MarketDetail/CreateMarket/market list redesign commits), and (4) a sizable documentation addition (“docs: add progressive-disclosure developer index”). The -17,268 deletions reflect active cleanup and reorganization rather than simple growth. This is evidenced by refactors that split large components and megacomponents, flattened transaction pipelines, pruned unused assets, and removed dead code and broken tests (“refactor: split FlashArena, prune unused assets…”, “refactor(frontend): split megacomponents…”, “chore: remove dead code and broken frontend tests”). Overall, the pattern indicates a build-and-consolidate phase: adding end-user functionality while also investing in codebase structure, documentation, and test reliability (“test(flash): verify all Flash UI transaction sequences end-to-end”, “refactor(test): extract ExchangeBase for shared setUp”).

Next Steps

Next work likely centers on continuing to harden the end-to-end oracle and transaction flows and expanding automated test coverage beyond the current Flash UI transaction sequence verification. Additional incremental UI and architecture refinement is also implied by the ongoing pattern of component splitting, shared typing, and transaction pipeline work.

Tokamak-zk-EVM is the core engine for executing smart contracts with zero-knowledge proofs, supporting private execution modes while remaining compatible with Ethereum-style environments. During this period, work concentrated on the multi-party computation (MPC) setup pipeline and associated tooling, which are foundational to generating and validating ZK-EVM proofs reliably. For users and investors, these changes primarily affect operational robustness, performance, and maintainability of the proof setup and example workflows used to validate private-state execution.

Key Accomplishments

• Synchronized backend CRS handling and MPC setup interfaces**
• Refactored MPC setup flows into library wrappers**
• Expanded subcircuit library capacity**
• Optimized MPC phase-2 preparation performance**
• Improved phase-2 preparation efficiency via streaming and chunking**
• Adjusted phase-2 setup parameter injection**
• Added archived and alternative MPC source modes**

Code Analysis

The +24,195 lines added and -16,901 lines deleted reflect substantial restructuring and throughput-focused changes centered on the MPC setup pipeline and supporting tooling. Large refactors (“Refactor MPC setup flows into library wrappers”, “Sync backend CRS handling and MPC setup interfaces”, “Unify backend path flag interfaces”) indicate deliberate work to consolidate interfaces and reduce duplicated logic, which typically results in both added wrapper/abstraction code and deleted legacy paths. Multiple commits targeting phase-2 performance and memory efficiency (“Optimize MPC phase-2 hot paths”, “Reduce MPC phase2 hot-path duplication”, “Stream phase2_prepare coefficients without full QAP rebuild”, “Chunk phase2_prepare basis work and reuse NTT buffers”) suggest that a meaningful portion of the churn was focused on making the setup process more efficient and operationally predictable. The repository also saw repeated refreshes of examples, fixtures, and snapshots tied to private-state synthesizer usage (“Refresh Sepolia private-state synthesizer examples”, “Refresh private-state synthesizer fixtures…”, “Update synthesizer state snapshot fixtures”, “Sync merkle depth and regenerate tokamak-l2js snapshots”). While these updates can appear as high-churn changesets, they are important for keeping validation artifacts aligned with the current state of the system, especially when CLI flows and deployment states evolve (“Refresh local private-state launch inputs after canonical CLI E2E registration”). Overall, the mix of refactoring, interface unification, performance improvements, and fixture/snapshot maintenance indicates a phase of engineering focused on operational readiness and maintainability rather than introducing brand-new end-user features.

Next Steps

Based on the concentration of commits around MPC setup refactors and phase-2 preparation optimizations, the next logical step is to continue hardening these unified interfaces and verifying correctness across the newly supported source modes (native and Dusk-backed). In parallel, further alignment and stabilization of private-state synthesizer examples and snapshots is likely to continue to reduce drift as tooling and deployment assumptions evolve.

trh-platform is a platform repository within the Tokamak Network ecosystem focused on deployment workflows, end-to-end (E2E) validation, and supporting tooling that ties infrastructure, desktop deployment operations, and test coverage together. The work in this period indicates an emphasis on making deployments and E2E verification more reliable and automatable, which is material for reducing operational risk and improving release confidence for stakeholders.

Key Accomplishments

• Introduced AWS E2E scaffolding with stronger credential handling**
• Expanded E2E test coverage for transaction and bridge workflows**
• Implemented desktop deployment notifications via a polling watcher**
• Added bridge deposit/withdraw and account-monitoring test scenarios**
• Built a full-cycle deployment matrix test (deploy→verify→teardown)**
• Hardened fee-token testing with self-contained account setup**
• Improved E2E helper structure and test artifacts (wallet/screenshot utilities)**

Code Analysis

The net +2,020 lines reflects substantial feature delivery alongside deliberate removal of unused or noisy components. Large additions were driven by AWS E2E scaffolding and supporting logic (credential refresh/region tracking), multiple new automated test suites (cross-trade transaction tests; bridge deposit/withdraw; fee-token and MinimalAccount-based flows; full deploy→verify→teardown lifecycle testing), and a polling watcher for desktop deployment notifications—each expanding automation and operational visibility (commits: “feat(aws)…”, “feat(e2e)…”, “feat(tests)…”, “feat: desktop deployment notifications…”). The high volume of deletions (-19,011) is strongly associated with cleanup and consolidation: removing tracked planning artifacts and excluding them via .gitignore, deleting unused EC2/Terraform deployment code, and removing a substantial body of “superpowers” documentation (commits: “chore: stop tracking .planning/…”, “chore: remove EC2/Terraform deployment…”, “Remove superpowers related docs”). Additional refactoring—such as extracting E2E helpers, modularizing CLAUDE.md, and improving Docker update checking via registry manifest digests—suggests active maintenance aimed at reducing friction for developers and CI environments while keeping the repository’s operational focus tight (commits: “refactor(e2e)…”, “refactor(claude)…”, “refactor(docker)…”). Overall, the pattern of simultaneous expansion in automated verification and reduction of unused components indicates ongoing maturation toward repeatable deployment/testing and a smaller maintenance footprint.

Next Steps

Based on the newly added phase plans and E2E validation focus, the next work is likely to continue executing and refining the documented platform integration and Sepolia E2E validation phases while iterating on the AWS/E2E scaffolding and test stability (commits: “docs(04)…”, “docs(05)…”, “feat(aws)…”, “feat(e2e)…”). Further consolidation may continue where unused deployment paths or legacy artifacts are identified (commits: “chore: remove EC2/Terraform deployment…”, “chore: cleanup planning artifacts…”).

Tokamak-AI-Layer is a development repository that combines smart contract work, deployment tooling, frontend components, and developer documentation related to the Tokamak AI Layer initiative. During this period, the work focused primarily on security/audit remediation and on improving developer enablement through new guides and onboarding materials. This matters to users and stakeholders because it directly affects the safety of deployed code and the ease with which external teams can evaluate and build on the stack.

Key Accomplishments

• Remediated multiple audit rounds and security findings**
• Mitigated high and medium issues from a named audit cycle**
• Updated test coverage to validate fixes rather than reproduce vulnerabilities**
• Extended deployment tooling and added a prediction market vault UI path**
• Shipped structured developer onboarding materials**
• Expanded hands-on developer documentation for adoption and education**
• Produced supporting demo collateral for consistent messaging**

Code Analysis

The very large net code increase (+26,418) is primarily attributable to two categories of work evidenced in the commits: (1) substantial audit remediation (“5th audit round fixes,” “remediate audit findings H-02 through H-10,” and mitigations for “high + medium findings” from the Plamen v1.1.8 second audit), and (2) significant additions to developer enablement assets (new tutorials, walkthrough documentation, onboarding funnel strategy, and a dedicated developers landing page). The addition of a CLI deploy flag and a “full prediction market vault UI” also contributes meaningfully to new code volume by introducing new UI and deployment-path logic. The -1,016 lines deleted aligns with security remediation and iterative hardening: audit fixes often require replacing vulnerable patterns, removing obsolete logic, and tightening implementations, which typically results in both additions (new checks/flows) and deletions (removal of unsafe or redundant code). Overall, the change profile indicates a period centered on maturing the codebase through security hardening, aligning tests with mitigated behavior, and packaging the project with clearer developer-facing entry points and instructional content.

Next Steps

Continue iterating on audit remediation until reviewers’ follow-up items are fully closed, while keeping the updated verification tests aligned with the intended mitigations. Build on the newly added developer landing page and tutorials by expanding and refining documentation and deployment/UI workflows introduced this period.

TokamakL2JS is a JavaScript library intended to let web applications interact with Tokamak Layer 2 components, with a focus in this period on state initialization workflows. The work matters because faster and more reliable state initialization and ingestion paths reduce setup time and operational overhead for developers integrating L2 state handling into tooling and applications.

Key Accomplishments

• Improved snapshot-init scalability and released an updated package version**
• Expanded and refreshed example snapshot datasets for snapshot-based initialization**
• Added benchmark and profiling tooling for initialization from snapshots**
• Adopted preloaded trie state snapshots and streamlined snapshot helpers**
• Replaced dense IMT storage trees with a sparse tree module**
• Consolidated and de-duplicated state ingestion and initialization logic**
• Reorganized state manager utilities for addresses, storage keys, and tries**

Code Analysis

The net increase of +5,036 lines reflects a period dominated by performance engineering infrastructure and snapshot-based initialization work rather than incremental API expansion. A large portion of added code is attributable to new profiling/benchmarking capabilities (“Add init-from-snapshot profiling script”, “Add snapshot init benchmark harness”, “Add preloaded trie ingest profiler”) and expanded/updated example snapshot materials (“Expand fromStateSnapshot example snapshot”; “Refresh fromStateSnapshot example dataset”), which support reproducible measurement and developer experimentation. The substantial deletions (-9,977 lines) align with replacing or removing older artifacts and consolidating logic: legacy benchmarking scripts were removed (“Remove legacy benchmark comparison scripts”), single-use helpers were inlined (“Inline single-use snapshot trie helpers”), and duplicated ingestion paths were reduced (“Reduce duplicated storage ingestion logic”, “Consolidate state manager init ingestion logic”). The replacement of dense IMT storage trees with a sparse tree module (“Replace dense IMT storage trees with sparse tree module”) indicates a targeted internal structural change aimed at better scaling characteristics for storage/state handling. Overall, the pattern of adding benchmarking/profiling tools while simultaneously deleting legacy scripts and consolidating logic suggests the repository is moving toward a more disciplined, measurement-driven workflow with clearer internal boundaries—typical of a project maturing its performance-critical paths and reducing maintenance burden.

Next Steps

Continue iterating on snapshot initialization performance using the newly added benchmark/profiling harnesses, and extend the documentation and example snapshot outputs as additional optimization findings are validated (as indicated by the recent benchmark-matrix refinements and optimization reporting updates).

zk-X509 is a tooling and protocol repository focused on generating and verifying zero-knowledge proofs tied to X.509-related disclosures, including selective disclosure and filtering mechanisms. During this period, the project expanded from core proving and disclosure logic into end-user and operational surfaces—desktop UI, delegated proving services, contract fields, and CI/release workflows—which are necessary for practical adoption and controlled proof generation.

Key Accomplishments

• Scaffolded a Tauri v2 desktop application*
• Built a React-based proof generation wizard*
• Added desktop build automation*
• Implemented a consent-based delegated proving system*
• Secured delegated proving with ECIES encryption*
• Added a delegated prover server binary and APIs*
• Extended contract-facing configuration for delegated proving*

Code Analysis

The +21,589 lines added largely reflect expansion into new execution surfaces and operational components: a full Tauri v2 desktop application scaffold with Rust backend commands (+9,916 in the desktop scaffold commit) and a React UI wizard for proof generation (+1,228), along with delegated proving capabilities (+1,571), server-side prover components (delegated prover server binary + signing-only API), and infrastructure needed for reproducible builds and cross-platform proving consistency (Docker prover addition and vkey consistency work). Additional additions include disclosure/filtering enhancements such as in-circuit constraints for privacy-preserving filtering and on-chain disclosure value filtering, plus distribution assets (download page, paper links) and release CI. The -3,358 lines deleted indicate ongoing iteration and consolidation rather than only net-new feature work. Notable deletions are tied to removing the Member Explorer feature from the frontend (-474), documentation trimming and restructuring (multiple updates to SECURITY_TODO.md, including a -160 change), and review-driven fixes (e.g., desktop review feedback and frontend type error resolution). Overall, the change profile suggests the repository moved from primarily core protocol logic toward a more complete product surface (desktop, server, CI/release, docs), while also pruning features and tightening consistency and security-related documentation—signals of maturing engineering practices as the system is prepared for broader use.

Next Steps

Near-term work implied by the current trajectory is continued stabilization of the desktop proof-generation experience (error handling, build reliability) and further hardening of delegated proving flows (encryption, consent, and server/API boundaries) as documentation and security checklists are updated alongside implementation.

Tokamak-zk-EVM-contracts contains the on-chain smart contracts and supporting tooling needed to verify ZK-EVM proofs, manage deposits/withdrawals, and maintain state-related workflows for Tokamak’s ZK-EVM stack. This repository matters because correctness and operational reliability at the contract layer directly affects user fund safety, bridge availability, and the integrity of state verification relied upon by applications and ecosystem participants.

Key Accomplishments

• Removed legacy and dead test/state paths**
• Implemented a channel join fee lifecycle**
• Built out the Dusk-backed Groth16 MPC setup flow**
• Added provenance verification for phase1 artifacts**
• Separated and refreshed Groth16 artifact mirrors**
• Stabilized Sepolia deployment and artifact handling**
• Reduced unnecessary bridge storage metadata writes**

Code Analysis

The +8,999 lines added largely correspond to new and expanded operational and cryptographic setup capabilities, including the channel join fee lifecycle (“Implement channel join fee lifecycle”), the Dusk-backed Groth16 MPC setup scaffold and completed flow (“Add experimental Dusk-backed Groth16 MPC setup scaffold”, “Complete Dusk-backed Groth16 MPC setup flow”), provenance verification (“Add phase1 provenance verification for Dusk-backed setup”), and improved observability via recovery events (“Add private-state storage-key recovery events”). Additions also reflect test and orchestration enhancements, such as expanded CLI E2E coverage for channel exit and DApp registration flows (“Cover channel exit in CLI E2E”, “Split DApp deployment orchestration from registration”, “Use canonical private-state launch inputs for CLI E2E DApp registration”). The -11,909 lines deleted indicates a deliberate consolidation and cleanup effort. The most prominent reduction comes from removing legacy root tests and dead channel state (“Remove legacy root test suites and dead channel state”), alongside substantial deletions tied to deployment and state refresh work for Sepolia/private-state and bridge metadata (“Remove bridge storage-write metadata and refresh Sepolia private-state”, “Redeploy Sepolia bridge with refreshed trusted artifacts”). Additional deletions are consistent with replacing bespoke implementations with standardized readers and updated fixtures (“Use tokamak-l2js snapshot readers directly”, “Fix verifier tests for current ABI and stale fixtures”), and with reorganizing artifact mirroring to reduce duplication (“Separate bridge and app Groth16 artifact mirrors”). Overall, the net change of -2,910 lines suggests maturation through pruning outdated paths while selectively adding functionality where needed for production readiness: clearer artifact boundaries, stronger setup provenance, improved E2E automation, and tighter alignment with ecosystem tooling and current ABIs.

Next Steps

Continue iterating on deployment and artifact lifecycle reliability for bridge/private-state environments (as reflected by repeated Sepolia redeploy and artifact refresh commits), while extending automated E2E coverage and maintaining alignment with evolving tokamak-l2js snapshot tooling and current verifier ABIs.

trh-wiki is a documentation and knowledge-base repository organized as an “LLM wiki” for Tokamak-related engineering and operations work, consolidating deployment guides, troubleshooting runbooks, and project references. It matters because it centralizes operational knowledge for multiple Tokamak initiatives (e.g., CrossTrade, Thanos/bridge infrastructure, DRB), reducing execution risk and improving reproducibility for teams responsible for shipping and maintaining production systems.

Key Accomplishments

• Initialized the repository using an LLM-wiki pattern*
• Ingested Phase 2 documentation from trh-platform*
• Consolidated CrossTrade integration and deployment documentation*
• Documented CrossTrade testing progress and maintenance updates*
• Expanded repository index coverage across related infrastructure projects*
• Added operational deployment workflow documentation*
• Strengthened troubleshooting runbooks for critical components*

Code Analysis

The +15,476 lines added largely represent ingestion of existing documentation and operational knowledge into a unified wiki, including a major import from trh-platform/docs/ (“feat: Phase 2 — first ingest from trh-platform/docs/”) and multiple CrossTrade documentation ingests covering planning, integration pages, and deployment guidance (“docs: ingest .planning knowledge…”, “docs(ingest): CrossTrade integration wiki pages”, “docs: ingest CrossTrade deployment guide”). Additional additions broadened the repository’s reference surface area through new repo entries (Thanos infra, DRB umbrella, and other repos) and practical runbooks/workflows for AWS L2 deployment and troubleshooting (“docs(workflows): ingest ec2-deploy AWS L2 deploy flow”, “docs: add … repos …”, “docs: add DRB project umbrella…”, “docs: add op-batcher blob fee spike troubleshooting page”). The -347 lines deleted are consistent with a documentation consolidation and cleanup cycle: restructuring the wiki layout and improving information quality by replacing raw or redundant content with more synthesized pages and simplifying the raw/ ingestion approach (“refactor(wiki): replace raw-reformat page with synthesized insights”, “refactor(wiki): simplify raw/ to drop-zone pattern…”). This pattern indicates the repository is moving from initial bulk ingestion toward a more curated, maintainable documentation system—important for operational reliability because stakeholders can more readily find validated procedures and troubleshooting guidance rather than navigating unstructured notes.

Next Steps

Continue converting newly ingested material into curated, synthesized pages while keeping repo indices and operational runbooks current as CrossTrade, Thanos-related infrastructure, and DRB components evolve. Maintain regular backups and refine the drop-zone/ingestion workflow to reduce duplication and improve long-term maintainability (“vault backup …”, “refactor(wiki): simplify raw/ to drop-zone pattern …”).

This repository contains the main Tokamak Network public website, serving as the primary entry point for users exploring the ecosystem, partners, and key informational pages. It matters to users and stakeholders because it shapes first impressions, improves discoverability of ecosystem projects and content, and provides structured pages and metadata that support sharing, indexing, and ongoing communications (e.g., periodic reports).

Key Accomplishments

• Completed a full landing page redesign using a “tower floor” UI system**
• Redesigned the price dashboard with a dark FUI theme and richer presentation modules**
• Converted and productized the price-cards prototype into maintainable Next.js components**
• Expanded ecosystem and partner presentation with consistent card-based UI patterns**
• Unified shared data sources to reduce duplication and improve consistency across pages**
• Standardized layouts and routing structure for maintainability**
• Improved social sharing and machine readability of site content**

Code Analysis

The net increase of +10,846 lines largely reflects substantial new and redesigned page implementations and content additions. Major additions correspond to the landing page redesign (PR#25), the price dashboard redesign with additional presentation elements (“dark FUI theme, video interludes, and animated stats”), new UI sections such as the ecosystem carousel, and the introduction of report documents (e.g., “Biweekly Report #4” and additional merged reports). The -2,370 lines deleted indicates active restructuring and cleanup alongside feature work. This is most visible in the conversion of the price-cards prototype into a Next.js component (a large change with both additions and significant deletions), and in refactors that consolidate duplicated data and layouts (“unify ecosystem data to single shared source”, “unify partners page layout with price dashboard”, “restructure price dashboard with route group layout”). The combination of feature expansion plus consolidation work suggests the site is moving from exploratory prototypes and page-by-page implementation toward more maintainable shared structures (data sources, layout groups, and standardized metadata).

Next Steps

Continue iterating on the redesigned sections by extending the shared layout/data patterns to additional pages and maintaining consistency across new content. Maintain the reporting and machine-readable documentation assets (reports, llms.txt, JSON-LD, OG metadata) as the ecosystem and site content evolve.

tokamak-rollup-hub-v2 is a Rollup Hub platform repository intended to support streamlined deployment and access to Layer 2 chains within the Tokamak ecosystem. During this period, work focused on improving distribution and user access pathways by enhancing the Desktop download experience and wiring it to live release data.

Key Accomplishments

• Restored dependency lock files**
• Added a Desktop download page and landing-page download card**
• Integrated dynamic release retrieval from GitHub**

Code Analysis

The net increase of +15,065 lines is dominated by the restoration of lock files (+14,682 lines, chore: restore lock files). This kind of change typically reflects reintroducing machine-generated dependency metadata, which increases the repository’s ability to produce repeatable installs and consistent builds across environments—important for operational stability and predictable releases. Beyond dependency metadata, the feature work accounts for several hundred lines of application code changes: a Desktop download page and landing hero download card (+365/-30, feat: add Desktop download page and landing hero download card) and a GitHub API integration to dynamically fetch the latest Desktop release (+79/-31, feat: dynamically fetch latest TRH Desktop release from GitHub API). The modest deletions (-61 lines total across the period) suggest small adjustments or replacements in existing UI and logic to accommodate the new download flow and dynamic release handling rather than broad refactoring. Overall, the change profile indicates targeted product surface improvements (download/distribution UX) alongside foundational build consistency work (lock files), which supports maintainability as the project evolves.

Next Steps

Near-term work is expected to continue iterating on the Desktop download experience and the release-fetching integration to ensure it remains reliable as releases change. Additional incremental updates are likely to focus on maintaining dependency consistency now that lock files have been restored.

toki is a campaign-focused web property supporting Tokamak Network’s event and marketing initiatives, centered in this period on an event lottery experience and related redemption flows. The repository matters because it delivers user-facing participation, claim, and verification journeys (including internationalization and voice-assisted interactions) that can be deployed quickly for campaigns, while also providing operational tools such as staff PIN checks and poster export assets.

Key Accomplishments

• Implemented a Supabase-backed lottery system and claim flow*
• Built a chat-room style claim experience with voice input*
• Added QR-based discount redemption with database verification*
• Introduced operational safeguards for redemption (seed data and staff PIN)*
• Redesigned the lottery landing and refreshed campaign branding*
• Expanded campaign distribution assets and production tooling*
• Improved internationalization and brand-consistent UI elements*

Code Analysis

The net increase of +11,280 lines reflects substantial feature delivery concentrated in user-facing campaign functionality and supporting operational tooling. Major additions include the Supabase-backed lottery system and claim flow (feat: add lottery system with Supabase backend and claim flow), the chat-room style claim flow with voice input (feat: add chat-room style lottery claim flow with voice input), and QR-based redemption with DB verification (feat: add QR-based discount redeem page with DB verification), alongside administrative safeguards such as staff PIN verification and seed data (feat: add lottery card seed data and staff PIN verification for redeem flow). A significant portion of added code also corresponds to campaign presentation and distribution materials: offline marketing mockups (feat: add offline marketing material mockups for Tokamak × THE GREEN campaign), poster variants and copy/assets updates (feat: add P4 poster variant, update copy/assets, and constrain mobile viewport; feat: update lottery poster copy and add Toki scan-me asset), and an event link hub plus A3 export scripting (feat: add event link hub page and poster A3 export script). UI work continued with landing redesigns, glassmorphism headers, responsiveness improvements, brand asset/icon updates, and CTA/map link changes (feat: redesign lottery landing with cherry blossom theme; feat: add glassmorphism header to event and lottery pages; feat: make event/lottery pages responsive and update button icon assets; feat: add Toki main CTA button and update map links). The -1,541 lines deleted indicate iterative refinement rather than pure expansion. Deletions are attributable to merge conflict resolution with main branch (merge: resolve conflicts with main branch (Korean SEO metadata)) and cleanup/rework associated with build stability and page rendering behaviors (e.g., restructuring around Suspense for deployment) (fix: wrap lottery claim/redeem in Suspense for Vercel build), as well as small removals to eliminate duplicates and development defaults (chore: remove duplicate CTA button and dev default card number). Overall, the change profile suggests the repository is moving from initial campaign feature build-out into a stabilization and iteration phase where deployment compatibility, authentication edge cases, and content/asset alignment are being addressed alongside ongoing UX updates.

Next Steps

Near-term work is likely to focus on continued stabilization and iteration of the lottery claim/redeem experiences (including voice and login reliability) and ongoing refinement of campaign content/assets across languages and formats, building on the recently added i18n, poster tooling, and build/prerender fixes.

trh-sdk is a developer SDK focused on deploying custom Layer 2 rollups on Tokamak Rollup Hub with minimal configuration. During this period, the repository’s changes concentrated on expanding deployment automation and contract integration (notably CrossTrade and OptimismPortal bindings), while improving reliability of genesis and fault-proof related setup steps. This matters to users and investors because it reduces operational friction and deployment risk for teams standing up rollups and related services within the Tokamak ecosystem.

Key Accomplishments

• Added contract bindings and ABI assets for deployment workflows**
• Reworked deployment build and account abstraction setup flow**
• Expanded CrossTrade configuration flexibility in compose templates**
• Implemented Isthmus-capable genesis setup for Thanos**
• Built an end-to-end CrossTrade pair deployment sequence with verification**
• Added a local orchestration layer and service integration for CrossTrade**
• Improved CrossTrade local deployment correctness and safety checks**

Code Analysis

The +11,004 lines added reflect substantial feature expansion centered on deployment automation and contract integration. A large portion of the growth is attributable to adding new contract interface material—specifically the OptimismPortal abigen binding and CrossTrade ABI JSONs (+5,942 lines) and additional type definitions/bytecode constants for DeployCrossTradeLocal (+104 lines), which are typical of ABI/binding generation and embedded bytecode artifacts (commits: “feat(01-01): add OptimismPortal abigen binding and CrossTrade ABI JSONs”, “feat(01-01): add DeployCrossTradeLocal type definitions and bytecode constants”). New deployment logic was also added in discrete, auditable steps, including a 7-step deployL2CrossTradePair sequence with L2 verification (+206 lines), deposit transaction helper functions (+106 lines), and a local orchestrator (+178 lines), indicating a move toward more standardized and repeatable deployment flows (commits: “feat(01-02): implement deployL2CrossTradePair 7-step sequence with L2 verification”, “feat(01-02): implement Deposit Tx helper functions for CrossTrade L2 deployment”, “feat(01-03): implement DeployCrossTradeLocal orchestrator”). The -1,515 lines deleted are primarily explained by refactoring/replacing parts of the deployment pipeline—most visibly the shift from forge build to the tokamak-deployer binary and associated changes to AA setup (-1,198 lines within that change). This suggests consolidation of build/deploy responsibilities into a dedicated tool and removal of redundant or superseded implementation paths (commit: “feat(deploy): replace forge build with tokamak-deployer binary, async AA setup”). Additional deletions are consistent with targeted fixes and configuration corrections, such as token-handling adjustments in the AA bridge and native-token behavior refinements (commits: “fix(aa-bridge): read native token from SystemConfig instead of hardcoded TON”, “fix(native-token): always use TON as L2 native token regardless of fee token”). Overall, the pattern of changes indicates the project is actively maturing its operational reliability: multiple commits focus on idempotency, pre-flight simulation, nonce management, container build correctness, and retry logic for rate limits. These are practical concerns typically addressed once core functionality exists and the SDK is being used in more realistic deployment environments (commits: “fix(thanos): add idempotency check and pre-flight simulation for initGenesisAnchorState”, “fix(thanos): wait for pending nonces before forge broadcast to fix nonce too low”, “fix(aa-bridge): add exponential backoff retry for L1 RPC 429 rate limit errors”, “fix(thanos): build op-node from repo root to fix go.mod not found in container”).

Next Steps

Continue completing and validating the CrossTrade deployment tooling introduced this period, particularly around local orchestration and L2 verification flows (commits: “feat(01-02)…”, “feat(01-03)…”, “fix(cross-trade-local)…”) and further harden Thanos/Isthmus genesis and deployment idempotency patterns based on the fixes already added (commits: “fix(thanos)…”, “fix(fault-proof)…”).

SentinAI is an AI-powered security sentinel intended to support automated smart contract auditing, vulnerability detection, and verification reporting. Within the Tokamak ecosystem, it focuses on operationalizing AI-assisted security workflows through agent-based execution, controlled actions, and operator-facing tooling. This matters to users and stakeholders because it targets repeatable security review processes with governance and reliability mechanisms (e.g., rate limiting, API hardening, CI, and test stabilization).

Key Accomplishments

• Expanded the agent framework and operator documentation**
• Introduced governance and visibility controls for autonomous actions**
• Hardened security around access and baseline protections**
• Added API abuse resistance for AI endpoints**
• Improved provider connectivity and authentication pathways**
• Enhanced onboarding/configuration flexibility for L2 environments**
• Stabilized engineering workflows through CI and test fixes**

Code Analysis

The net increase of +10,041 lines largely reflects substantial feature additions and supporting operational materials. The single largest expansion comes from introducing agent subagents, an NLOps agent, operator guides, and marketplace Claude context (+6,852 lines), indicating a major build-out of agent capabilities and operator-facing documentation/configuration (commit: “feat: add agent subagents, NLOps agent, operator guides, and marketplace CLAUDE context”). Additional feature growth includes autonomy governance and UI/visibility components such as an autonomy ledger, action whitelist, feed panel, and operator pack visibility (+1,597 lines), suggesting an emphasis on controlled autonomy and observability for operators (commit: “feat: add autonomy ledger, action whitelist, feed panel, and operator pack visibility”). Security and reliability improvements account for targeted additions with modest deletions: API key guard hardening, blocking unauthenticated endpoints, and establishing a coverage baseline (+444/-39) and per-IP rate limiting (+176) indicate the project is formalizing protective controls typical of services that expose AI endpoints (commits: “security: …”; “feat(middleware): …”). The CI pipeline and Dependabot configuration (+115) and multiple test/lint fixes show active investment in engineering hygiene and regression prevention (commits: “ci: …”; “fix(tests): …”; “fix(lint): …”; “fix(test): …”). The relatively small deletions (-166 total) appear tied to cleanup and hardening steps (lint fixes, refactor extraction, ignoring artifacts), suggesting the codebase is still in a growth phase while beginning to enforce stronger quality gates. Overall, this change profile indicates a transition from feature build-out toward more operational maturity: governance controls for autonomy, stricter endpoint protections, CI automation, and documented planning for LLM integration (commit: “docs: add PRD for LLM critical path integration (Improvement #1)”).

Next Steps

Near-term work is likely to focus on implementing the documented LLM critical path integration requirements and iterating on the expanded agent/marketplace and operator tooling (commit: “docs: add PRD for LLM critical path integration (Improvement #1)”). Continued strengthening of test coverage baselines, CI stability, and endpoint security controls is also implied by the newly established coverage baseline, rate limiting, and recent CI/test remediation.

This repository serves as a centralized store for Tokamak Network’s bi-weekly and quarterly reporting materials, consolidating periodic updates into a single, version-controlled location. For stakeholders, this improves traceability and auditability of reporting artifacts over time, supporting transparent communication and historical comparison across reporting cycles.

Key Accomplishments

• Added reporting files to the repository**
• Established an initial content baseline without removals**

Code Analysis

The net addition of +8,849 lines with -0 deletions indicates the period was dominated by new content being introduced rather than iteration on existing files. The only provided commit message (“Add files via upload”) supports the interpretation that these changes reflect the ingestion of reporting materials into the repository (likely document/content files reflected as line additions in Git’s diff). There is no evidence in the commit information of refactoring, optimization, restructuring, or content pruning; the change profile is consistent with early-stage repository build-out or a bulk addition of historical/current reporting artifacts.

Next Steps

Continue adding subsequent bi-weekly and quarterly reporting files as they are produced to maintain continuity of the reporting record. As the repository grows, consider standardizing file organization and update practices through clearer commit messages and/or structured contribution workflows to improve traceability for reviewers.

trh-platform-ui is a web-based dashboard used to manage and monitor deployed L2 rollup instances within the Tokamak ecosystem. It provides the operational interface for deploying rollups via presets/wizards, viewing rollup status, and navigating integrations. For users, this reduces friction in configuring and operating rollups; for stakeholders, it supports product readiness by making rollup lifecycle actions and key configuration paths accessible through a maintained UI.

Key Accomplishments

• Reworked the preset deployment wizard flow**
• Redesigned preset selection with richer context**
• Improved error visibility during deployment failures**
• Refined rollup lifecycle actions and state handling**
• Enhanced account/address usability in the UI**
• Introduced and integrated CrossTrade UI components**
• Modernized overview navigation presentation**

Code Analysis

The +3,196/-3,604 line delta indicates substantial UI rework rather than incremental feature additions, with deletions outpacing additions due to replacing or rolling back significant wizard implementations. The largest churn is directly tied to the preset wizard iterations—removing a “classic mode wizard” (-2,746 lines), introducing a simplified 2-step flow (+1,092/-442), and then restoring a full 3-step wizard (+1,331/-151). This pattern suggests the team actively validated the wizard structure against “all required fields” and deployment expectations, prioritizing correctness and completeness over minimal change. Net negative change (-408) alongside multiple redesign commits (preset selection/service detail panel, Quick Links grid cards, CrossTradeCard and integration wiring) indicates consolidation and cleanup as features were restructured. Smaller refactors and fixes—such as improving gas token descriptions, tightening rollup destroy-button rules across statuses, resetting creation state, and resolving layout/text wrapping issues—reflect continued attention to operational reliability and UI clarity. Overall, this period reflects a UI layer moving through iterative refinement of core workflows (deployment configuration and rollup operations) while incorporating new integration surface areas in a controlled way.

Next Steps

Continue stabilizing and validating the preset wizard and preset configuration behaviors to reduce further churn, particularly around required fields and error handling. Extend the integration and overview areas as needed while maintaining consistent lifecycle-state handling and UI reliability for rollup operations.

tokamak-rally is a rally-style track and navigation system prototype being developed under the Tokamak Network organization. The work in this period focused on expanding the track “parts” system, improving layout safety (preventing overlaps), and refining HUD/navigation arrows—areas that directly affect playability, clarity, and iteration speed for future content.

Key Accomplishments

• Implemented a 3-track system with improved course boundaries**
• Expanded directional geometry to support diagonals and 8-direction movement**
• Built a Thrash Rally-style arrow system with combinational logic**
• Hardened layout generation to prevent overlaps by construction**
• Resolved overlap edge cases and improved track physicality**
• Iterated track part libraries and rendering completeness**
• Refined HUD navigation arrows for clarity and stability**

Code Analysis

The +3,683/-2,414 net +1,269 line change aligns with feature expansion paired with substantial iteration and cleanup. New capability work is evidenced by the addition of multi-direction track systems (3-track, 8-direction, diagonal parts), expanded part catalogs and rendering completeness, and a more sophisticated navigation arrow framework (11 arrow types with combo detection and HUD integration). The significant deletions suggest active refinement—removing or replacing earlier layout patterns (e.g., replacing an s-curve with a Z-pattern, removing obstacles, cleaning “snake” layouts) and tightening generation logic to avoid overlaps and undesirable turn sequences. Overall, the period reflects a project moving from exploratory implementations toward more deterministic, testable construction rules (e.g., overlap prevention “by construction”) and more stable player guidance via HUD/arrow fixes.

Next Steps

Continue consolidating the layout-generation rules and arrow/HUD behaviors into fewer edge cases, building on the existing “safe layout” and arrow-fix work. Additional incremental documentation and setup improvements are likely to follow the existing handoff and local-environment setup changes.

The sheriff repository represents an early-stage Tokamak Network project where the primary deliverable in this period was an initial architectural draft. Establishing a documented architecture is a foundational step for aligning contributors, clarifying system boundaries, and reducing integration risk as development progresses, which matters for both user-facing reliability and predictable execution for stakeholders.

Key Accomplishments

• Published an initial architecture baseline**
• Established a starting point for coordinated development**

Code Analysis

The net addition of +4,929 lines in a single commit is consistent with introducing a first-pass architectural draft—typically a sizable set of design artifacts and/or structural scaffolding that defines how the project is intended to be organized (“Launched the first architectural draft”). With 0 lines deleted, the change set reflects an initial creation phase rather than refactoring or optimization, indicating the repository is at an early maturity stage where foundational documentation and structure are being established ahead of iterative development.

Next Steps

Next work should build on the initial architectural draft by incorporating review feedback, refining the architecture as needed, and translating the draft into actionable implementation milestones and incremental changes.

oracle-battle appears to be an oracle task and “agent consensus” application that combines an on-chain task pipeline with off-chain data fetching and verification, and a user-facing interface for monitoring task outcomes. Within the Tokamak ecosystem, this kind of system matters because oracle correctness and liveness directly affect downstream applications that depend on external price/data inputs. For stakeholders, the work in this period centers on making the system more deployable (including Phala TEE), more observable, and more resilient to partial failures.

Key Accomplishments

• Redesigned the frontend UI and demo experience*
• Hardened the on-chain task pipeline for Phala TEE deployment*
• Improved robustness under partial or missing agent responses*
• Upgraded external data tooling and introduced certificate pinning for Upbit calls*
• Expanded automated testing across core services and routes*
• Added containerization for repeatable Phala-oriented deployments*
• Removed hardcoded environment assumptions and improved multi-chain compatibility*

Code Analysis

The net +2,744 lines reflects substantial feature and usability work, led primarily by frontend changes and MVP demo enhancements: the UI redesign and real-time/consensus visualization updates account for the largest single additions (feat(ui): redesign frontend…, feat(ui): MVP demo improvements…). A meaningful portion of added code also went into quality and assurance: expanded tests across configuration, service layers, and routing indicate an effort to stabilize behavior as functionality grows (test: improve coverage…), and documentation additions suggest work to make the project easier to evaluate and maintain (docs: add progressive-disclosure project analysis). Deletions (-755) appear consistent with iterative refinement and removal of brittle assumptions: hardcoded RPC endpoints and local defaults were replaced with environment-driven configuration and more general chain handling (fix: remove hardcoded localhost RPC…, fix: read deployer key and treasury from env…, fix: support arbitrary chainId…). Tooling changes also indicate consolidation—replacing a specific candle-price function with generic fetching and certificate checking reduces duplicated logic and encourages a more modular integration pattern (feat(tools): replace getCandlePrice…). Overall, the mix of UI build-out, deployment packaging (Docker/compose), security hardening (certificate pinning), and test expansion suggests the repository is moving from prototype behavior toward a more operationally usable MVP, with emphasis on deployability and failure clarity.

Next Steps

Based on the direction of recent commits, the near-term focus is likely to continue tightening deployment/operations for Phala TEE (including configuration and runtime reliability) while iterating on the MVP UI’s clarity around agent status and consensus outcomes. Further incremental test expansion and hardening of oracle failure modes would be a logical continuation of this period’s work.

crossTrade appears to be a Tokamak Network repository supporting a cross-chain trading or transfer dApp and its associated smart-contract tooling and documentation. The work in this period focuses on keeping contract integration details current, improving the dApp’s chain-selection and history behavior, and strengthening build/CI reliability across architectures. These updates matter to users through more accurate network routing and a smoother UI experience, and to stakeholders through reduced operational friction in deployments and maintenance.

Key Accomplishments

• Refreshed contract integration and developer tooling**
• Corrected destination-chain selection logic in the dApp**
• Improved UX robustness and accessibility**
• Strengthened CI/build support for arm64 and manual execution**

Code Analysis

The net increase of +1,230 lines (from +2,593 / -1,363) is dominated by the large maintenance commit that updated contract addresses, moved documentation, introduced Foundry scripts, and adjusted ignored broadcast outputs (“chore: update contract addresses, move docs, add foundry scripts, ignore broadcast”). This suggests a meaningful expansion or reorganization of developer-facing assets (scripts/docs/configuration) rather than purely incremental code tweaks. The smaller commits reflect targeted fixes: - Feature/behavior adjustments in the dApp were made with relatively small diffs, including the destination picker logic to include L1 options and a React dependency fix to prevent empty history on initial load. - Operational/CI refinements added minimal code but address practical build issues on arm64 (node-gyp prerequisites on Alpine; longer network timeout during QEMU builds) and improved workflow usability with updated triggers and manual runs. The significant deletions (−1,363) alongside large additions indicate active restructuring—likely moving or replacing documentation and tooling artifacts—rather than simple code growth. Overall, the work reflects a maturation step focused on maintainability (updated addresses, organized docs, standardized scripts) and operational stability (more reliable CI across architectures), with a smaller set of focused user-facing fixes.

Next Steps

Continue validating that updated contract addresses and destination-selection logic remain aligned with supported networks as deployments evolve, and keep iterating on CI reliability across platforms. Additional incremental dApp refinements are likely to follow in the same areas evidenced this period (routing options, history loading behavior, and accessibility).

trh-backend provides backend infrastructure for deploying and managing Tokamak Rollup Hub stacks, including local deployment workflows and related service automation. It matters to users because it governs how reliably rollup environments and associated services (e.g., CrossTrade-related components) can be provisioned, configured, and recovered, and to investors because it operationalizes deployment processes that affect time-to-launch, support load, and platform stability.

Key Accomplishments

• Implemented a DeployCrossTradeLocal wrapper for the deployment stack**
• Expanded CrossTrade local control surface with a retrigger endpoint and registration structures**
• Wired L2 registration into the deployment success path**
• Added CrossTrade local auto-install logic to deployment workflows**
• Built and validated dApp environment configuration generation**
• Improved safety by preventing conflicting local deployments**
• Adjusted CrossTrade connectivity and supported additional metadata cases**

Code Analysis

The +3,526 lines added largely reflect new CrossTrade local deployment functionality and surrounding automation. The single largest contribution is the addition of a DeployCrossTradeLocal wrapper in thanos_stack.go (+1503/-27), indicating substantial new orchestration logic consolidated into a stack-level entry point (feat(03-01): add DeployCrossTradeLocal wrapper to thanos_stack.go). Additional feature growth came from new API/flow surfaces and structs for retriggering and registering CrossTrade components (+206/-14; +186/-0), plus wiring registration into deployment paths (+88/-40) to make deployments more end-to-end automated (feat(crosstrade): add RetriggerCrossTradeLocal endpoint and fix L1 contract addresses; feat(03-04): add CrossTradeL1Registration structs and RegisterCrossTradeL2(); feat(03-04): wire RegisterCrossTradeL2()). A meaningful portion of added code also supports environment generation and validation: BuildDAppEnvConfig for .env.crosstrade (+129/-0) and multiple tests that were introduced as failing tests (+79/-0; +63/-0), signaling deliberate test-driven enforcement of expected behavior before stabilization (feat(03-02): implement BuildDAppEnvConfig; test(03-02): add failing test for BuildDAppEnvConfig; test(02-01): add failing Backend crossTrade local deployment tests). The +364 lines of design ADRs represent documentation investment around operationally sensitive areas like credential storage, suggesting a shift toward formalizing internal standards as functionality grows (docs(design): add ADRs for credential storage and preset module auto-install). The -262 lines deleted are concentrated in fixes and adjustments (e.g., replacing hardcoded RPC defaults and tightening deployment wiring), suggesting iterative cleanup as new flows were integrated (fix(crosstrade): pass l2RpcUrl to DeployCrossTradeLocal instead of hardcoding localhost:8545; feat(03-04): wire RegisterCrossTradeL2() into deployment.go CrossTrade success block). Overall, the pattern indicates active feature expansion alongside operational hardening (deployment guards, stale DB auto-correction, CI updates), consistent with a backend moving from initial capabilities toward more repeatable, supportable deployment operations.

Next Steps

Based on the introduction of failing tests for CrossTrade local deployment and env configuration, the next work should focus on making those tests pass by completing implementation details and stabilizing edge cases in deployment/registration flows. The newly added ADRs also imply follow-through work to ensure credential storage and preset module auto-install behavior is implemented consistently across deployment paths.

This repository is a Tokamak Network codebase that, during the current reporting period, was refactored and renamed from tokasino to enshrined-vrf. While the repository description is not provided in the available metadata, the naming change indicates an effort to align the project identity with its intended scope and to reduce ambiguity for developers and integrators. For users and investors, consistent project naming supports clearer governance, easier discovery, and lower integration risk across the broader Tokamak ecosystem.

Key Accomplishments

• Refactored and renamed the project
• Executed a broad, codebase-wide update to support the rename**

Code Analysis

The period contains a single commit explicitly described as a refactor and rename (“refactor: rename project from tokasino to enshrined-vrf”), accounting for +3,407 lines added and -252 lines deleted. This magnitude typically corresponds to project-wide adjustments necessary to complete a rename (e.g., updating identifiers, package/module names, configuration references, and supporting files) and suggests the work was executed as a coordinated sweep to maintain internal consistency. The 252 lines deleted alongside substantial additions indicates that parts of the prior naming or structure were removed or replaced during the refactor, which is consistent with eliminating outdated references and consolidating on the new project name. From a maturity perspective, the change reflects maintenance and structural alignment work (naming and organization), rather than feature delivery; it is the type of update that reduces operational friction for future development, audits, and integrations.

Next Steps

Following a repo-wide rename, the next practical step is to ensure all external touchpoints (developer documentation, build/release processes, and any downstream dependencies that reference the prior name) are updated to the enshrined-vrf naming to prevent integration or operational discrepancies.

This repository contains the code and operational assets for a “listener-server” component used within the Tokamak Network ecosystem. During this period, development focused on changing the deployment model of that service, which directly affects reliability, security posture, and operational control for stakeholders who depend on consistent service execution.

Key Accomplishments

• Migrated the listener-server from Cloud Run to a Compute Engine VM**
• Updated documentation to match the VM deployment model**
• Addressed security and review findings introduced by the migration**
• Added an iptables startup script for VM networking controls**

Code Analysis

The net increase of +2,528 lines largely reflects the introduction of VM-specific deployment and operational logic required to replace Cloud Run execution (commits “feat: migrate listener-server from Cloud Run to Compute Engine VM” and “Migrate listener-server from Cloud Run to Compute Engine VM (#4)”). A substantial portion of the added code also comes from documentation updates aligned with the VM migration (commit “docs: update all documentation for VM migration”), indicating an emphasis on operational clarity alongside implementation. The -531 lines deleted suggests removal or replacement of prior Cloud Run-oriented configurations or workflow elements as the project standardized on VM deployment (evidenced by the explicit Cloud Run → VM migration commits). Smaller targeted changes for security remediation and review feedback (the two “fix” commits) indicate iteration and stabilization after the primary migration work, which is consistent with a project moving from initial migration to hardening.

Next Steps

Following the VM migration and documentation refresh, the next logical steps are to continue hardening the VM deployment (including security and network controls) and to validate operational readiness using the updated documentation as the baseline for repeatable deployments.

This repository implements an HR operations automation tool focused on payroll, expense settlement, and team member administration workflows. During this period, work concentrated on expanding payroll management capabilities, integrating on-chain transaction synchronization and exchange-rate lookup, and improving administrative controls (e.g., wallet management and employee status separation). These capabilities matter to stakeholders because they reduce manual operational overhead and improve auditability and consistency in compensation and expense processing.

Key Accomplishments

• Introduced a dedicated payroll calculation module with employee status separation**
• Strengthened team member administration and payroll history lifecycle management**
• Implemented an expense settlement workflow**
• Added configurable multi-wallet payroll settings with persistence API support**
• Expanded wallet management and improved transaction readability**
• Integrated Etherscan-based transaction synchronization with safety filters**
• Improved dashboard data integrity and reduced hardcoding**

Code Analysis

The net change of +2,539 lines reflects substantial feature expansion across payroll, expenses, configuration, and blockchain-linked automation. The largest additions align with the creation of a payroll calculation tab with active/retired separation and Excel import/export workflows (+928/-148), strengthened team member management with payroll history CRUD and automated exchange-rate retrieval (+573/-50), and a new expense settlement tab (+373/-0). Additional code growth came from settings work to manage multiple payroll wallets and persist configuration via an API (+214/-17), plus Etherscan integration for automated transaction synchronization (+142/-6) and usability improvements like mapping transaction addresses to names (+176/-13). Overall, this period’s changes indicate the project is moving from basic HR tooling toward a more complete operational system with automated data ingestion (Excel), document output (payslip PDF), and externally sourced financial/transaction data (exchange rates and Etherscan), with iterative corrections to edge cases and presentation.

Next Steps

Next work is expected to continue hardening these workflows—particularly around payroll history imports/exports, payslip generation, and transaction synchronization—building on the recently added modules and fixes (e.g., compatibility handling, missing-rate behavior, and spam filtering). Further iteration on configuration and team member detail screens is also implied by the recent UI restructuring and selective feature pausing.

tokamak-thanos is Tokamak Network’s optimistic rollup stack implementation used to support Ethereum scaling via an L2 system and associated operational components. It includes tooling and node/batching/proposing logic that must remain compatible with evolving Ethereum protocol changes (e.g., blob fee dynamics and gas estimation changes). This repository matters to users and investors because it directly influences deployability, operational reliability, and cost predictability of Tokamak’s rollup-based infrastructure.

Key Accomplishments

• Introduced an L1 deployment CLI*
• Reduced batch submission failures from blob fee volatility*
• Improved protocol-compatibility for gas estimation and proposal flow*
• Updated L2 predeploy and node deployment bytecode for Tokamak fork alignment*

Code Analysis

The net addition of +2,459 lines is largely attributable to the introduction of a new tokamak-deployer CLI binary (+2,293 lines), which indicates substantive new tooling rather than minor adjustments. Smaller but targeted changes (+~200 lines combined) focus on operational robustness: configuring op-batcher behavior to avoid blob fee spike failures, correcting tx manager handling of excessBlobGas (including restoring “real” values in one change and treating it as zero in another to bypass Sepolia blob fee spikes), and updating proposer/batcher logic for Pectra EIP-7623 gas estimation. Deletions (-22 lines) are minimal and appear tied to incremental fixes and adjustments rather than a large refactor, suggesting the period prioritized adding deploy tooling and making compatibility/edge-case corrections to keep the rollup stack stable as upstream Ethereum conditions change.

Next Steps

Further work will likely continue aligning node and deployment components with evolving Ethereum protocol behavior and network-specific conditions, while extending and hardening the new deployment CLI for broader operational coverage. Additional follow-up may also be needed to reconcile tx manager blob gas handling across different networks and fee regimes based on the newly introduced fixes.

thanos-bridge is a Tokamak Network repository focused on bridge-related functionality and operational tooling, including containerized execution and network configuration behaviors. Its reliability and correctness matter to users because bridging workflows depend on accurate network validation, environment configuration, and clear presentation of on-chain contract information. For investors and stakeholders, this repository’s progress is relevant as it supports operational robustness and reduces friction in deployment and troubleshooting.

Key Accomplishments

• Improved Docker runtime configuration handling**
• Hardened local RPC and chain-switch validation logic**
• Enhanced bridge information readability**
• Streamlined debugging documentation and repository hygiene**

Code Analysis

The +163 lines added primarily reflect documentation capture and operational knowledge retention, specifically the archived debug session (“docs: archive resolved debug session withdraw-network-switch-balance-zero”). The -145 lines deleted are largely attributable to cleanup of internal planning/debug artifacts (“chore: remove .planning/debug/ after wiki ingest”), indicating an effort to reduce noise and keep the codebase and ancillary files maintainable. The net +18 lines suggests targeted, incremental changes rather than broad feature expansion. The fixes around Docker environment variable propagation and runtime application (“fix: ensure docker container receives L2 network environment variables”, “fix(docker): allow environment variables to be applied at container runtime”) represent operational hardening—improving predictability in containerized runs. The network validation adjustments (“fix(network): allow host.docker.internal for local RPC validation”, “fix(network): use isHTTPS utility for localhost validation in chain switching”) indicate maturation toward more robust environment handling, especially for developer and CI/container workflows. The UI/UX-oriented change to display full contract addresses (“fix(bridge-info): remove text truncation to display full contract addresses”) reduces operational ambiguity and supports safer verification processes.

Next Steps

Continue refining network and runtime configuration pathways to minimize deployment variance across environments, and extend troubleshooting documentation practices by capturing additional resolved edge cases as they arise.

oracle-sdk is a software development kit intended to help application developers integrate Tokamak Network oracle-related functionality into their codebases. It matters because a well-documented and type-safe SDK reduces integration effort and lowers the likelihood of implementation errors for teams building products that rely on oracle interactions. For investors and stakeholders, this repository reflects ongoing work to improve developer usability and integration correctness.

Key Accomplishments

• Added practical integration examples for viem and wagmi**
• Corrected signature type in TaskResponse**

Code Analysis

The net increase of +228 lines is almost entirely attributable to new documentation/example content (+227 lines) added to illustrate usage with viem and wagmi. This indicates the primary work this period was developer-experience oriented—expanding reference material rather than changing core behavior. The remaining change is a small but relevant type correction (+6/-5) that adjusts how a signature is modeled in TaskResponse (from Hash to Hex). The limited deletions suggest a targeted fix rather than a broad refactor, consistent with incremental maturation: tightening type definitions and aligning the SDK’s data structures with expected formats while expanding practical guidance.

Next Steps

Next work should continue in the direction evidenced this period: expanding and refining examples/documentation for additional common integration paths, and validating SDK type definitions to ensure compatibility and correctness for consuming applications.

tokamak-thanos-stack provides full-stack tooling and infrastructure components for operating Thanos-based rollup chains, with an emphasis on deployment and operational configuration. In the Tokamak ecosystem, it helps standardize how operators provision and run services, which supports more predictable performance and maintainability across environments. This matters to users and stakeholders because consistent deployment practices and resource governance reduce operational risk and improve reliability as usage scales.

Key Accomplishments

• Documented a preset-based Helm values decision via ADR**
• Standardized Kubernetes resource requests across services**

Code Analysis

The net change of +151 lines is primarily attributable to new documentation and deployment configuration enhancements. The bulk of the additions (+123 lines) came from adding a design-focused ADR detailing the preset-based Helm values matrix (docs(design): add ADR for preset-based Helm values matrix), indicating an investment in formalizing operational decisions rather than leaving configuration conventions implicit. The remaining changes (+30/-2 lines) reflect Helm updates to define explicit resource requests for all services (feat(helm): add explicit resource requests to all services), with minor deletions consistent with small adjustments while integrating these settings. Overall, this period’s changes suggest the project is maturing in operational rigor—strengthening documentation governance and improving deployment determinism through explicit resource management.

Next Steps

Continue extending the Helm deployment guidance and configuration documentation so operators can apply presets consistently across environments. Follow-on work would logically include further refinement of operational parameters in Helm charts to support predictable rollup service behavior under varying load conditions.

zk-x509-ca-registry maintains a registry of CA certificates and associated service metadata used by Tokamak Network components that rely on consistent, curated CA inputs. By centralizing these records, the repository supports operational consistency across environments and reduces the risk of misconfiguration when services reference CA materials.

Key Accomplishments

• Updated CA certificates and service metadata entries**
• Added CA registry entries for a local development chain (31337)**
• Introduced test CA certificates for local Anvil testing**

Code Analysis

The +56/-56 net-zero change indicates the period’s work was primarily focused on replacing and reorganizing existing registry content rather than expanding the overall codebase footprint. The “Add/update CA certs + service metadata” commits (including #18, #20, #21) suggest iterative adjustments to certificate and metadata records—likely overwriting outdated entries or reformatting/updating structured data—while keeping repository size stable. The dedicated chore commit for adding local Anvil test CA certs (chain 31337) reflects incremental maturity in development workflow support, emphasizing reproducible local testing without materially increasing long-term repository complexity.

Next Steps

Continue maintaining the CA certificate set and associated service metadata as new services or environments require updates, following the established add/update pattern. Expand and keep current the local-development test fixtures (e.g., Anvil chain 31337) to ensure registry changes can be validated consistently during integration work.

tokamak-thanos-geth is a modified version of the Geth execution client tailored to operate in the Tokamak Thanos rollup environment. As an execution client, it is responsible for processing transactions and maintaining the EVM-compatible state, making it a core component for rollup reliability and compatibility. For users and investors, changes in this repository directly affect the rollup’s ability to interpret L1-derived data correctly and maintain consistent execution behavior.

Key Accomplishments

• Added Isthmus L1 info support for rollup processing (176-byte calldata)**

Code Analysis

The net addition of 67 lines, with no deletions, indicates the work was additive and focused on introducing new capability rather than refactoring or removing legacy behavior. Specifically, the added code corresponds to the new rollup feature that supports “Isthmus L1 info” using a 176-byte calldata representation (feat(rollup): add Isthmus L1 info support (176-byte calldata)). With only one feature-focused commit and no cleanup or restructuring reflected in the diff statistics, the change appears to be a targeted extension to accommodate a new or updated L1 info format requirement for the Tokamak Thanos rollup environment.

Next Steps

Next steps are likely to include validating this Isthmus L1 info handling across relevant rollup execution flows and expanding compatibility coverage as additional L1 info formats or rollup requirements are introduced.

TON-total-supply is a data-oriented repository used to track and publish Tokamak Network’s TON token total supply figures over time. Maintaining an up-to-date, auditable record of supply data supports transparent reporting for token holders, partners, and stakeholders. For investors, consistent supply reporting is a foundational input for assessing token economics and monitoring changes across reporting periods.

Key Accomplishments

• Updated the 2026.4.1 data sheet**

Code Analysis

The net change of +6 lines (with +12 additions and -6 deletions) aligns with a targeted maintenance update rather than new functionality. The additions likely reflect newly entered or revised data entries for the 2026.4.1 reporting point, while the deletions suggest removal or correction of prior values or redundant rows/fields as part of keeping the dataset clean and accurate. This type of change indicates the repository is being used as an ongoing source of record where small, periodic updates are expected, emphasizing operational accuracy and continuity rather than frequent feature development.

Next Steps

Continue periodic updates to the data sheet for subsequent reporting dates and ensure any necessary corrections are incorporated promptly to maintain consistency and reliability of the published total supply record.

This repository maintains the tokamon-io project assets used to support end-user access to Tokamak-related application builds, as evidenced by updates to an Android download QR code. Its practical relevance to users is ensuring that installation and migration flows point to the correct build artifacts, which reduces friction during upgrades and environment changes. For stakeholders, this work supports operational continuity by keeping distribution endpoints accurate as builds and deployment targets evolve.

Key Accomplishments

• Updated Android download QR code for a VM migration build**
• Maintained consistency of download entry points with minimal code churn**

Code Analysis

The net-zero change (+2 lines added, -2 lines deleted) indicates a targeted replacement rather than an expansion of functionality. Based on the commit message, the modified lines most likely correspond to updating a QR code reference (e.g., swapping an encoded payload, URL, or asset pointer) to point to the Android “VM migration build.” This type of change suggests the repository is in a maintenance mode for specific distribution touchpoints, where correctness and timeliness of references (links/QR codes) are the primary concern rather than large-scale development.

Next Steps

Continue maintaining download-related assets (such as QR codes) as new builds are produced or as migration/deployment targets change, ensuring that user-facing installation paths remain accurate. As additional migration builds are released, verify and update any other distribution references in this repository to prevent mismatches across platforms or channels.

Tokamak Network · Biweekly Report #6 · April 01-15, 2026

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