Block Explorer
Search blocks, transactions, addresses, tokens, Rotating Kings, checkpoints, TVM contracts, phone buckets, registered numbers, and network activity.
Open explorerTKMChain is an EVM-compatible RandomX proof-of-work network designed around real usage: shielded privacy, quantum-resistant account flows, mining, wallets, contract deployment, public audit trails, phone-number identity, encrypted messaging, call signaling, swaps, and explorer visibility.
The project combines familiar Ethereum tooling with chain-specific systems such as Rotating Kings, signed checkpoints, TKMSHIELD1 shielded transactions, ML-DSA-87 post-quantum signing, TVM contract inspection, institutional proof records, governance disclosures, and a phone marketplace where ownership is recorded through network transactions.
TKMSHIELD1 envelopes are verified before EVM execution.PQTkmTxType uses ML-DSA-87 signatures and version 4 post-quantum keyfiles.A blockchain project should be more than a chain that moves balances. TKMChain is being built as a complete public network with tools people can actually open, test, mine, inspect, and use.
At the base, TKMChain is a proof-of-work blockchain using RandomX. The goal is to make mining accessible to normal machines while keeping the network anchored in measurable work. The chain remains compatible with Ethereum-style accounts and RPC flows, so users can send TKM, developers can deploy contracts, and wallets can connect using familiar Web3 methods.
The project also adds native ideas that are specific to TKMChain. Rotating Kings create a visible reward relationship between the protocol and active community participants. Signed checkpoints strengthen peer security. The governance disclosure ledger gives future users a way to audit public promises, roadmap statements, checkpoint decisions, and fund commitments without relying only on posts that can be edited or removed.
Privacy and quantum resistance are implemented as protocol features, not just website promises. Shielded transactions use encrypted commitments, nullifiers, a TKMSHIELD1 data envelope, and Groth16 proof verification. Post-quantum accounts use ML-DSA-87 keys, version 4 keyfiles, and the PQTkmTxType typed transaction path.
The institutional suite gives schools, banks, agencies, enterprises, cooperatives, and public bodies a way to publish verifiable proofs for credentials, documents, invoices, procurement, grants, and audit disclosures without exposing private files on-chain.
TKMChain is also experimenting with phone-number identity. Buckets are created by MainKing through the daemon, operators buy buckets, users buy numbers, and registered SIM slots can send messages or start calls. This makes the phone system part of the network infrastructure instead of a separate website database pretending to be ownership.
The ecosystem is split into focused tools so each surface has a clear job. The wallet handles accounts, PQ keyfiles, and transactions, the explorer handles auditability, the phone market handles numbers, the institutions suite handles public proof records, and the swap interface handles the ANTD/TKM workflow.
Search blocks, transactions, addresses, tokens, Rotating Kings, checkpoints, TVM contracts, phone buckets, registered numbers, and network activity.
Open explorerCreate and manage TKM wallets, import keystores, handle PQ account metadata, send transactions, connect dapps, and use the public TKMChain network from a browser.
Open walletEncrypted commitments, nullifier tracking, TKMSHIELD1 transaction envelopes, padded outputs, and Groth16 spend proof verification are in the chain path.
ML-DSA-87 accounts, version 4 PQ keyfiles, migration helpers, and PQTkmTxType transaction signing are exposed through wallet/RPC support.
Use multisignature owners, spending limits, restricted session keys, delayed guardian recovery, deterministic accounts, and sponsored operations without a hardfork.
Explore smart accountsBuy buckets, become an operator, open numbers, sell numbers, download SIM files, register device keys, send messages, and initiate calls.
Open phone marketUse the one-to-one swap workflow between ANTD, a Monero-fork asset, and TKM on the TKMChain side of the system.
Open swapDownload release miner builds for Windows AMD64, Linux AMD64, Linux ARM64, and Linux ARMv7 systems.
Download minerInspect deployed TVM artifacts and verify contract code through explorer support designed for the chain's native TVM work.
View TVMRegister verified organizations and publish credential, document, invoice, procurement, grant, escrow, and disclosure proofs.
View institutionsRead signed disclosure records for checkpoint decisions, roadmap updates, Rotating King notes, fund commitments, and security notices.
View governanceRequest test funds for getting started with wallets, basic transactions, contract testing, and onboarding new users.
Open faucetTKMChain keeps Ethereum compatibility where it helps, and adds project-specific rules where the network needs its own identity, security, and economics.
Mining is based on RandomX, with release miners provided for common desktop, server, and ARM devices.
Consensus layerRotating King rewards create a public reward path beyond miners, tying network activity to community participation.
Reward modelPeers can compare signed checkpoint hashes and disconnect from peers that report mismatched network history.
Peer securityDifficulty logic is designed to avoid unsafe fallback behavior and prevent mining from restarting blindly after local truncation.
Mining safetyAccounts, balances, transactions, gas, token contracts, Web3 wallets, and Ethereum-style tooling remain familiar.
Developer accessEncrypted commitments and TKMSHIELD1 envelopes are validated with nullifiers, padded outputs, binding hashes, and Groth16 spend proofs.
Post-quantum accounts use ML-DSA-87 signatures through PQTkmTxType, while keyfiles stay compatible with the wallet keystore model.
Contract-enforced owners, recovery, spending limits, application sessions, and sponsorship add safer wallet behavior without changing consensus.
Non-consensus account layer →TVM contract artifacts can be read and displayed in the explorer, making deployed native code easier to verify.
Contract transparencyVerified institutions can publish hashes for documents, credentials, invoices, procurement, grants, escrow, and disclosures.
Public verificationSupply commands expose genesis supply, issued rewards, miner rewards, Rotating King rewards, and MainKing rewards.
Economic visibilityBucket creation, bucket purchases, number sales, SIM registration, and phone ownership are tied to network state.
Identity layerSigned disclosures preserve public explanations for later audit instead of relying only on website text or chat history.
Long-term memoryTKMChain mainnet uses 2026-08-06 10:00:00 UTC as the activation timestamp for both privacy commitments and quantum-resistant transaction validation. From that timestamp, user transactions must use the shielded path and normal user activity must use the post-quantum transaction type.
The shielded transaction format is a real consensus envelope. Transaction data begins with TKMSHIELD1, carries spends, exactly four padded output slots, encrypted note payloads, nonces, a balance commitment, and a binding hash. Each spend must include a valid TKMG16V1 Groth16 proof checked against the configured TKMG16VK1 verifying key.
The post-quantum wallet path uses ML-DSA-87 keys, version 4 encrypted keyfiles, local RPC helpers for PQ account creation and migration, and PQTkmTxType signed transactions. Legacy ECDSA keyfiles remain readable for history and pre-fork migration records, but post-fork user transactions are PQ-only.
The TKM Phone system is designed so numbers are not just rows in a website database. MainKing creates number buckets from the daemon. Operators buy buckets, open them, and sell individual numbers. Users who buy numbers receive ownership that can be exported into a SIM file and used by phone and chat applications.
A registered number is expected to have a device key and owner signature. That protects the system from fake numbers, unregistered senders, and market listings that continue after a number has already been selected for use. Messages and call signaling are built around registered numbers, not anonymous website accounts.
Bucket generation is done from gtkm, keeping MainKing approval out of hosted websites.
Operators pay for buckets, receive numbers, and can sell numbers to end users.
Once a user activates a number, it is permanently removed from the market and tied to its owner/device flow.
Unregistered numbers cannot send messages or initiate valid phone actions.
TKMChain keeps the EVM path for compatibility with wallets, token contracts, and Web3 libraries. That matters because developers should not need to learn a completely new account model just to test or deploy simple applications.
TVM support gives the project another contract surface for native work. The explorer is being updated so deployed TVM artifacts can be inspected after mining. That same public-verification approach supports institutional records, token contracts, and native TVM work without hiding important state inside private services.
TKMChain includes a deployed institutional suite for organizations that need verifiable records without placing private documents directly on-chain. The chain stores hashes, status fields, admin addresses, metadata references, timestamps, and transaction provenance, while the original private files can remain with the institution or its storage provider.
This is useful for diploma and certificate verification, government permits, business approvals, invoices, procurement awards, grant and scholarship records, escrow-backed service delivery, audit reports, public corrections, and institutional accountability.
The deployed suite is application-layer infrastructure. It is exposed through the tkminstitution RPC namespace and standard EVM transaction flow, so wallets, explorer pages, and institution portals can prepare records without requiring a hardfork or exposing institution admin keys on a hosted website.
Blockchains preserve balances and transaction history, but they do not automatically preserve the explanation behind project decisions. TKMChain adds a signed governance disclosure ledger so important statements can be published with hashes, signatures, timestamps, previous-hash links, and optional transaction anchors.
This is useful for Rotating King selections, checkpoint decisions, roadmap statements, hardfork notices, security announcements, and development-fund commitments. The purpose is not to replace consensus; it is to make public commitments harder to silently rewrite.
MainKing signed disclosures give the community a permanent reference point. A website can be redesigned and forum posts can change, but a signed hash gives users something stable to compare against the original document.
Official miner builds are hosted directly from TKMChain. Choose the release for your operating system and CPU architecture, then connect it to your pool or local node.
TKMChain-compatible XMRig build for 64-bit Ubuntu systems. Download the archive, extract it, and configure it for your mining pool.
For 64-bit Windows desktops and servers. Download the archive, extract it, and configure it for your mining endpoint.
For 64-bit Intel and AMD Linux systems, including common servers and desktop mining setups.
For 64-bit ARM servers, boards, and ARMv8 devices that can run the RandomX miner.
For 32-bit ARM hard-float Linux devices where a smaller mining build is required.
The current roadmap is focused on making every major protocol addition visible through public tools, documented flows, and user-facing applications.
Explorer, wallet, faucet, swap, phone market, miner downloads, shielded privacy, PQ transactions, institutional records, supply accounting, TVM inspection, and governance records.
More complete note creation, note scanning, proof-generation UX, encrypted note backup, and safer shielded transaction submission flows.
Better token discovery, institution pages, TVM contract pages, PQ account labels, shielded status views, and clearer explorer pages for developers and users.
More signed disclosures, clearer public records, and documents that preserve the reasoning behind checkpoints and project changes.
TKMChain supports Ethereum-style account compatibility where useful, plus TKM-specific RPC and typed-transaction paths for shielded commitments, post-quantum wallets, TVM, institutions, phone state, governance, and supply accounting.
Network name: TKMChain Mainnet
RPC URL: https://wallet.tkmchain.site/rpc
Chain ID: 8979
Currency: TKM
Explorer: https://block.tkmchain.site
Privacy: TKMSHIELD1 commitments
PQ signing: ML-DSA-87 / type 0x06