GenesisL1
CHAIN 29
Build with durable data, deterministic models, programmable assets, autonomous agents, markets and public infrastructure on one composable Layer 1. Scientific protocols are a core domain—not the limit of what the network can support.
GenesisL1 applications share one verifiable state rather than operating as isolated products. Data can become a programmable asset; models can be deployed and replayed; confidential IP can be encrypted and licensed; and dApps, agents, markets and planned DAOs can integrate through open contracts. Biomedical & life science are a flagship domain within a broader platform for data-intensive systems.
Use one public Layer 1 for tokenized digital objects, deterministic computation, encrypted intellectual property, settlement, public-goods funding and community-governed infrastructure.
Explore the architecture ↗︎Train GBDT models locally, mint the exact bytes as ERC-721 Model NFTs and execute deterministic inference inside smart contracts. Offer open, tipped, subscription or transferable model access—no SaaS or oracle in the execution path.
Launch studio ↗︎Tokenized PDB, AlphaFold/Swiss-Prot and ESMFold-derived collections provide portable identifiers and canonical citations; complete PDB structures can also be reconstructed directly from GenesisL1 state.
Open MOLNFT ↗︎Publish datasets as discoverable web3 artifacts with ownership, provenance, licenses and programmable access attached.
Open DatasetNFT ↗︎Live on GenesisL1 mainnet: encrypt locally, store ciphertext fully on-chain and transfer decryption capability through owner-bound envelopes and buyer-safe escrow, with optional ML-KEM-768 post-quantum key protection.
Open protocol ↗︎A compact quantized policy network executed inside the EVM over a 4,672-action space—an existence proof that nontrivial learned functions can be deterministic, contract-callable and independently replayed.
Open demonstration ↗︎A research-focused laboratory in development for peptide design, protein targeting, molecular docking, in-silico drug discovery, molecular medicine and tokenized or encrypted biomedical IP.
Preview peptl ↗︎Deterministic DNA, RNA, protein and symbolic encodings with strict on-chain/off-chain parity, building toward bioinformatics dApps, SEQNFT, GL1ALIGN and a planned Human Genome reference on-chain.
Inspect specification ↗︎Planned infrastructure for existing DAOs and new research communities to govern assets, raise and manage funds, deploy protocols, apply for L1 grants and operate the full scientific stack.
Explore planned DAO engine ↓Biomedical research, molecular medicine and bioinformatics are among GenesisL1’s deepest deployed use cases: complete molecular structures, genomic and protein sequences, machine-learning models and protected research IP can share one citable execution environment. The same data-first blockchain architecture extends to any discipline that needs durable provenance, tokenization and replayable computation.
Explore biomedical and bioinformatics infrastructureA roughly 229,000-entry PDB snapshot—about 50 GB of compressed structural data—is reconstructable directly from GenesisL1 state. The wider corpus exceeds 733,919 tokenized structures.
Open MOLNFT PDB ↗︎peptl is planned as an on-chain laboratory for peptide design, protein targeting, molecular docking, in-silico drug discovery, molecular medicine and tokenized or encrypted research IP.
Preview peptl ↗︎GL1ENCv2 defines deterministic encodings for DNA, RNA, protein and symbolic sequences. SEQNFT, GL1ALIGN and a planned on-chain Human Genome reference build on exact byte parity.
Inspect GL1-Seq ↗︎GenesisL1 Forest turns the machine-learning lifecycle into a verifiable protocol for biomedical research, bioinformatics, quantitative systems and other structured-data fields. Training can happen in the browser or on local Python and C++ backends; model bytes are deployed to mainnet, tokenized as Model NFTs, executed through 100% on-chain deterministic inference and consumed directly by wallets, smart contracts, dApps, laboratories, AI agents and autonomous systems.
Open the GL1F studioUse browser, local Python or local C++ training. Datasets and wallet keys do not need to be uploaded to a third-party AI service.
WASM · PYTHON · C++Serialize weights into deterministic GL1F bytes, store them as code and bind the model hash, license and ownership to an ERC-721 Model NFT.
MODEL ID = HASH(BYTES)Fixed-point tree inference executes in smart contracts. The same packed features return the same score on every node and every replay.
NO SAAS · NO ORACLEOffer open inference, optional tips, paid calls or subscriptions—or transfer the model itself through an on-chain marketplace.
FREE · TIPS · PAID · TRADEGL1F acts as a decentralized model interface for LLMs, autonomous agents and ordinary programs: they can discover a model, verify its bytes, purchase access, invoke deterministic inference and settle in L1 without trusting the operator of a private API. Agent Hub and GL1F Autopilot are the active direction toward software that trains, deploys, tokenizes, lists, trades and monetizes models itself—while every downstream caller can replay the exact commitment.
GL1F exposes model identity, ownership, pricing and deterministic inference through public smart-contract interfaces. An LLM, trading system, laboratory workflow or autonomous program can resolve a model, verify its immutable bytes, pay for access, call inference and settle revenue directly with the owner. No API operator can silently swap weights, revoke a model or rewrite a result.
Model creators can train locally, deploy and tokenize the artifact, publish access terms, list it for trade and receive L1-denominated inference or subscription revenue. Agent Hub and GL1F Autopilot extend this toward software that builds and commercializes models itself.
modelId · hash · license · ownerpredictView / predictTxtips · paid calls · subscriptionsmint · list · transfer · revenueA model can be wrong, biased or overfit. GenesisL1 makes its identity, inputs and execution reproducible so users can evaluate the science rather than trust an opaque service.
GenesisL1 is planning a full scientific-DAO environment for existing communities and newly formed research organizations. A DAO can use the chain as its treasury, data room, model runtime, IP registry, grant rail and permanent public record.
Planned capabilities include fundraising and treasury management, contributor roles, proposals, milestones, community-pool grant applications, ownership of scientific assets, protocol deployment and integration with any compatible on-chain primitive.
Raise and hold L1 or compatible assets, publish budgets, stream milestone payments, vote on allocations and apply to the governance-controlled L1 community pool for public-goods grants.
The DAO engine is not live today. Its modules and launch sequence will be released only after implementation, testing, security review and the relevant governance process.
Read the roadmap framingTokenization on GenesisL1 binds exact content, provenance, model identity, licensing, access logic and application state to a durable object that contracts, people and autonomous software can reference. Scientific artifacts are a central use case, not the limit of the primitive.
Exact structural bytes, canonical citation and token identity become a verifiable input for downstream contracts and models.
Browse blocks, transactions, addresses, validators, governance, supply, tokenized data and application assets across dedicated EVM and native-ledger views.
Search EVM transactions, native accounts, validators and molecular NFT collections from one interface.
Open explorer ↗︎ 02 / NETWORK DESKView supply, staking, inflation, governance, IBC and direct links into the public network.
Open Web3Desk ↗︎ 03 / WALLET + STAKINGA Cosmos-style explorer and web wallet for accounts, staking, governance and on-chain utilities.
Open Ping ↗︎ 04 / ALTERNATE VIEWAn additional public explorer with transaction statistics and market-information integrations.
Open ATOMScan ↗︎Stake, govern, bridge, inspect and connect without a hosted account or custodial intermediary. Each interface is a static web3 client: your wallet signs locally, while transactions and reads go to public network infrastructure.
Compare validators, delegate, redelegate, unbond and claim protocol rewards through the non-custodial EVM staking interface.
Open staking ↗︎Inspect shareable proposal records, sponsor deposits and vote with bonded L1 through public, verifiable governance.
Open governance ↗︎Move wL1 through the decentralized community-validator bridge with wallet-local signing and public settlement.
Open bridge ↗︎Connect Chain ID 29 to MetaMask and compatible EVM wallets.
Open ChainList ↗︎Search blocks, transactions, accounts, validators and tokenized assets.
Open explorer ↗︎Discover available pools and IBC-enabled exchange routes for L1.
Open Osmosis ↗︎Bridge the EVM-compatible wL1 token between GenesisL1 and Base for portable access, settlement and liquidity across connected web3 applications.
Access wL1 bridge ↗︎These applications are static clients rather than custodial services. Review wallet prompts, network conditions and protocol disclaimers before signing; staking, governance and bridging involve protocol and smart-contract risk.
Start with data, a model, a digital asset, an application or a community. Compose live protocols for deterministic computation, tokenization, encrypted IP, settlement and public infrastructure—then take them into science, AI, markets, autonomous software or entirely new institutional systems.