A high-performance parallel EVM chain

Bitroot is a Layer 1 blockchain built from the ground up around parallel execution. Instead of processing transactions one at a time like a traditional EVM chain, Bitroot analyzes the dependencies between transactions and runs every conflict-free transaction at the same time, across multiple execution engines. The result is a chain that behaves like the internet: fast, responsive, and able to scale with demand rather than choke under it.

Built for real throughput, not marketing numbers

Traditional EVM chains inherited Ethereum's single-threaded execution model: one virtual machine processing one transaction after another, no matter how many validators or how much hardware backs the network. Bitroot removes that ceiling. A dedicated scheduler builds a dependency graph of pending transactions, groups the ones that don't touch the same state, and dispatches them to run in parallel. Transactions that do conflict are still executed safely and in the correct order — they just don't hold up everything else.

Three engines, one execution layer

• Parallelized Intelligent Execution Engine — schedules and runs conflict-free transactions concurrently for internet-grade speed.
• AI-Native EVM Module — extends the EVM instruction set so smart contracts can call AI models directly, on-chain.
• Zero-Knowledge Verifiable Auditing — every AI-assisted decision can be proven and audited without exposing private inputs.

What that means in practice

For users, it means transactions confirm in well under a second and cost a fraction of a cent. For builders, it means dApps, AI agents, and high-frequency applications that would choke a serial-execution chain can run natively on Bitroot without redesigning around its limitations. Bitroot currently sustains 100,000+ transactions per second with roughly 0.3-second finality and full EVM compatibility, so any existing Solidity contract can deploy without modification.

A network designed around parallel execution

The Bitroot Network is organized in layers: a consensus layer that agrees on transaction ordering, an execution layer made up of multiple parallel EVM engines, and a storage layer that keeps state access fast even as the chain grows. Each layer is optimized for the same goal — letting independent work happen at the same time instead of waiting in a single queue.

Consensus: a pipelined Byzantine fault-tolerant protocol

Block production uses a four-stage pipelined BFT consensus (propose, pre-vote, pre-commit, commit) that overlaps stages across consecutive block heights instead of fully finishing one block before starting the next. Validators aggregate their signatures with BLS threshold signatures, so confirming a block doesn't require verifying every signature one by one. The network tolerates up to one-third of validators acting maliciously or going offline without losing safety or liveness, and still reaches finality in roughly 0.3 seconds.

Execution: many EVMs working at once

On top of consensus, Bitroot's execution layer runs multiple EVM instances in parallel. A scheduler analyzes which transactions read or write the same account or storage slot, executes independent transactions simultaneously, and only serializes the ones that genuinely conflict. When two transactions are predicted to be independent but turn out to touch the same state, the engine detects the conflict, rolls back just the affected transaction, and re-executes it — without stalling the rest of the block. As validator and shard count grows, throughput scales close to linearly rather than plateauing.

Network performance at a glance

• 100,000+ transactions per second sustained throughput
• ~0.3 second transaction finality
• 100% EVM compatibility — existing contracts, wallets, and tooling work unmodified
• ~$0.00007 average gas fee per transaction

Running a node

Because Bitroot is fully EVM-compatible, validators and node operators can use familiar Ethereum client tooling and RPC methods. Anyone can run a node to help secure the network and participate in consensus, using the same standards developers already rely on for monitoring, indexing, and infrastructure.

Solidity in, no changes required

Smart contracts on Bitroot are standard EVM bytecode. You write them in Solidity or Vyper, compile them with the same tools you already use — Hardhat, Foundry, Remix — and deploy with MetaMask or any Ethereum-compatible wallet. There's no new language to learn and no proprietary VM to target: if a contract runs on Ethereum today, it's built to run on Bitroot with no code changes.

Contracts that execute in parallel

The difference shows up at runtime. On a traditional EVM chain, every contract call — yours and everyone else's — executes strictly one after another, so a busy dApp can slow down the entire network. On Bitroot, the scheduler looks at what state each transaction actually touches. Calls into your contract that don't conflict with other pending transactions execute concurrently across the network's parallel execution engines, so your contract's throughput isn't capped by whatever else is happening on-chain at the same time.

AI-native instructions, when you need them

Bitroot extends the standard EVM instruction set with an optional AI extension set — operations like MATMUL, ATTENTION, and CONV2D — so a contract can invoke AI model computation directly, with the result verifiable on-chain, instead of relying entirely on an off-chain oracle. Contracts that don't use these instructions behave exactly like ordinary EVM contracts.

Low, predictable gas

Efficient parallel execution keeps gas costs low and consistent — Bitroot's average transaction fee is around $0.00007 — which makes it practical to build applications that transact on-chain frequently: AI agents making repeated calls, on-chain games, or high-frequency DeFi strategies that would be priced out on a slower, more expensive chain.

A few engineering boundaries

To keep execution fast and predictable at scale, Bitroot applies a small number of adjustments relative to vanilla EVM semantics — for example, contract bytecode size is capped, and a handful of high-cost precompiles have adjusted gas accounting. These boundaries are documented in the technical whitepaper and rarely affect typical application contracts.

A digital dollar that doesn't move like one

A stablecoin is a crypto token engineered to hold a stable value, usually pegged 1:1 to a fiat currency like the US dollar. It lets people hold and move dollar-equivalent value on a blockchain without the price swings of an asset like BTC or ETH — the price stability is the entire point.

Three ways to hold the peg

• Fiat-backed — reserves of cash and short-term government debt sit in a bank or trust, and each token is redeemable for one unit of the underlying currency; USDC and USDT are the largest examples and together dominate the stablecoin market.
• Crypto-collateralized — the peg is backed by other crypto assets locked in a smart contract, over-collateralized to absorb price swings, with stability maintained on-chain rather than by a bank; DAI, launched by MakerDAO, is the best-known example.
• Algorithmic — supply expands and contracts through code and market incentives rather than a 1:1 reserve; the model is still evolving, and TerraUSD's 2022 collapse is a reminder of how it can fail without solid backing.

Why stablecoins matter for payments

For everyday use, a stablecoin does exactly what the name promises: it lets a dollar-denominated balance move between people or applications instantly and cheaply, without a bank's business hours, cross-border wire fees, or exposure to a volatile market while you decide what to do with it. That's why stablecoins have become the default settlement layer for on-chain trading, payroll, remittances, and merchant payments — global stablecoin supply has grown into the hundreds of billions of dollars.

Stablecoins on Bitroot

Because Bitroot is fully EVM-compatible, any existing stablecoin contract — a fiat-backed ERC-20 token or a crypto-collateralized design like DAI — deploys without modification. What changes is the experience of using it: transfers confirm in well under a second, average fees run around $0.00007, and the network's parallel execution engines mean a surge in stablecoin activity from one application doesn't slow down transfers for everyone else.

More than a picture: ownership recorded on-chain

An NFT (non-fungible token) represents ownership of something unique — a piece of art, an in-game item, an event ticket, a domain name, or a claim on a real-world asset — rather than an interchangeable unit like a currency. Each NFT carries its own identity and a permanent, publicly readable ownership history.

Two standards, two jobs

• ERC-721 — the original NFT standard: every token is one-of-a-kind and tracked individually, suited to unique assets like art, deeds, or single collectibles.
• ERC-1155 — a multi-token standard that represents fungible, semi-fungible, and non-fungible items in a single contract and supports batch transfers, which is why most game economies use it to stack currencies and items alongside unique gear at a fraction of the gas cost.

Where NFTs are actually used

Beyond digital art and profile pictures, NFTs today back in-game economies, event ticketing, membership and access passes, and a fast-growing category of tokenized real-world assets — deeds, certificates of authenticity, and fractional ownership of physical property. Gaming alone accounts for roughly a quarter of all NFT trading volume, and real-world-asset NFTs are one of the fastest-growing segments as tokenization goes mainstream.

Why minting and trading works better on a parallel EVM chain

NFT activity is bursty by nature — a popular mint or a live in-game item drop can throw thousands of transactions at a single contract within seconds. On a traditional single-threaded EVM chain, that spike backs up the entire network and gas prices spike with it. Bitroot's parallel execution engine processes independent mint and transfer transactions concurrently instead of queuing them one by one, so throughput holds up during a launch instead of collapsing under it, while fees stay near $0.00007 per transaction.

Paying with a blockchain instead of a bank

A blockchain payment moves value directly between two wallets, settled by the network itself rather than routed through a chain of banks and card processors. For sender and receiver, that means a payment that's final in seconds, doesn't depend on business hours or borders, and — on an efficient chain — costs a fraction of a cent instead of a percentage-based fee.

Where crypto payments are already winning

The clearest use case is cross-border money movement. Traditional international remittances still average around 6% in fees on several hundred billion dollars moved every year. Stablecoin-based payments have started to route around that cost: major payment networks and remittance providers have added stablecoin settlement corridors in the last two years, because a payment that only needs an internet connection reaches places traditional rails struggle to serve affordably.

Machine-speed payments

A newer category of payment is emerging that traditional rails were never built for: AI agents and automated services making small, frequent payments to each other for an API call, a compute cycle, or a single inference request. That only works if the fee is a small fraction of the payment itself and settlement doesn't require a human to sit and wait for confirmation.

Why Bitroot fits both

With roughly 0.3-second finality and an average fee of about $0.00007, Bitroot is priced for payments a card network or wire transfer never could handle economically — from remittances to machine-to-machine micropayments — while its parallel execution engine keeps that performance intact even as transaction volume scales.

An organization run by a smart contract, not a boardroom

A DAO (decentralized autonomous organization) replaces a company's board and management hierarchy with rules encoded in smart contracts and decisions made by token-holder votes. Proposals, treasury spending, and protocol upgrades are all executed transparently on-chain, so anyone can verify what was decided and why — no closed-door meetings required.

How governance actually works

Most DAOs issue a governance token that gives holders voting weight proportional to how much they hold or have staked. Anyone can typically submit a proposal; if it passes a vote, code executes it automatically — releasing funds from a treasury, changing a protocol parameter, or upgrading a contract — without anyone needing manual authority to carry it out.

Different DAOs, different jobs

• Protocol DAOs govern a live DeFi protocol — a decentralized exchange or lending market deciding fee levels, supported assets, or treasury use.
• Investment DAOs pool member capital to make collective investment decisions, from early-stage tokens to increasingly tokenized real-world assets.
• Grant and social DAOs fund public goods or gate community membership by token ownership, with funding decisions made by public vote rather than a single committee.

Building a DAO on Bitroot

A DAO is only as usable as the chain it runs on: voting and treasury execution need to be cheap enough that participation isn't priced out, and fast enough that governance doesn't grind to a halt waiting on confirmations. Bitroot's full EVM compatibility means existing, audited DAO tooling — governance frameworks, multisigs, treasury managers — deploys unchanged, while sub-cent fees and sub-second finality make on-chain voting practical even for large, active communities.

Renting out compute instead of owning a data center

A decentralized AI network lets anyone with spare GPU capacity — from a hobbyist rig to an underused data center — contribute compute to a shared marketplace, and lets anyone who needs to train or run an AI model rent that capacity instead of relying on a single cloud provider. Payment, coordination, and proof that the work was actually done are handled by a blockchain rather than a company in the middle.

Why this exists

Demand for AI compute has outpaced what centralized cloud providers can supply, and access to high-end GPUs has increasingly concentrated among a handful of large companies that can afford them. Decentralized compute networks pool idle hardware that would otherwise sit unused, typically undercutting major cloud providers by a wide margin on comparable GPU hours, while giving smaller teams access to hardware they couldn't otherwise afford.

What the model looks like in practice

Networks in this space generally take one of a few shapes: GPU marketplaces that rent out raw compute for deploying models, subnet-style networks where independent operators compete to produce the best output for a given task, and verified training networks that split a large training job across many independent nodes with a cryptographic layer that checks the work was done correctly. What they share is the same underlying idea as a blockchain: don't trust a single operator, verify the output instead.

How this connects to Bitroot

Bitroot's AI-native EVM module extends this idea down to the smart contract layer: rather than a model living purely off-chain with the blockchain only handling payment, a Bitroot contract can call AI computation directly through its extended instruction set and get a result that's verifiable on-chain. Combined with the chain's parallel execution engine, the coordination, payment, and verification layer for a decentralized AI network doesn't become the bottleneck — it scales alongside the compute it's coordinating.

What gas actually pays for

Every operation a smart contract performs on an EVM chain — storing a value, transferring a token, running a loop — has a fixed computational cost measured in gas. Gas exists for two reasons: it stops a buggy or malicious contract from looping forever and grinding the network to a halt, and it compensates the validators who provide the computation and bandwidth to execute and confirm your transaction.

Gas limit vs. gas price

• Gas limit — the maximum amount of gas you're willing to let a transaction consume; think of it as a spending cap, not a target. You only pay for the gas actually used, so setting it higher than necessary costs nothing extra — it just avoids a failed transaction if it turns out to be more expensive than expected.
• Gas price — the price per unit of gas, typically split into a base fee (set by network congestion and burned rather than paid to anyone) and a priority fee (an optional tip that goes to whoever produces the block, for getting included faster).

Why fees swing on most EVM chains

On a chain with a single-threaded execution engine, gas prices exist to ration a genuinely scarce resource: when demand for block space exceeds supply, the fee market bids the price up until enough transactions drop out, and it falls back down once congestion clears. That's normal, expected behavior for a chain whose throughput is a fixed number of transactions per block.

Why Bitroot's fees don't work like that

Because Bitroot's parallel execution engine runs conflict-free transactions concurrently instead of queuing everything through one thread, the network doesn't have the same throughput ceiling that drives fee spikes elsewhere. Gas accounting still follows the same rules as any EVM chain — you still set a gas limit, still pay a base and priority fee — but with far more execution headroom, the market rarely needs to bid the price up. In practice, that keeps the average transaction fee on Bitroot around $0.00007, even during periods of high activity.

Tips that still apply

• Let your wallet estimate the gas limit automatically rather than guessing; overestimating costs nothing, underestimating fails the transaction.
• Batch operations into a single transaction where your contract supports it — you pay the fixed transaction overhead once instead of per call.
• Watch the priority fee, not the base fee, if a transaction needs to confirm faster than usual — the base fee is dictated by the network, the tip is the one lever you control.

The two things that actually get people's funds stolen

The overwhelming majority of crypto losses don't come from a broken blockchain — they come from a leaked seed phrase or a signed transaction the victim didn't fully understand. Both are avoidable with a handful of habits that matter far more than which chain you're using.

Your seed phrase is the only real secret

Your wallet's recovery phrase is the master key to everything it holds. It should never be typed into a website, stored in a screenshot, cloud note, or email, or read aloud on a call. No legitimate exchange, wallet provider, project team, or "support agent" will ever ask for it — anyone who does is attempting to steal your funds, without exception.

How wallets actually get drained

• Phishing sites and fake wallet apps — a look-alike site or an app-store clone that shows you a seed phrase it already controls, or captures the one you type in; only download wallet software from the project's official site and verify the URL before connecting.
• Malicious token approvals — a "claim your airdrop" button that, instead of sending you tokens, asks for unlimited spending approval over a token you already hold; scammers then drain that token the moment the approval is signed. Unsolicited tokens that show up in your wallet should never be interacted with.
• Fake support and urgency — messages claiming your account is compromised, or an airdrop that expires "in 24 hours," are both designed to make you act before you think. Legitimate teams don't create artificial urgency and don't message you first.

Habits worth keeping

• Use a hardware wallet for anything you're not actively trading, and always read what you're signing on the device's own screen — not just in the browser pop-up.
• Keep a separate, low-balance wallet for connecting to new dApps or claiming airdrops, so a bad approval can't touch your main holdings.
• Periodically review and revoke old token approvals for contracts you no longer use, using a revocation tool for the network you're on.
• Use an authenticator app or hardware security key instead of SMS for any account tied to your crypto activity — SIM-swap attacks make text-message codes one of the weakest links.

What Bitroot does on its side

Bitroot's consensus layer is Byzantine fault-tolerant up to one-third of validators acting maliciously, and its zero-knowledge verifiable auditing lets AI-assisted contract decisions be checked without exposing private data. That protects the network itself — but no protocol-level security replaces the basic habits above, since almost every real-world loss happens at the wallet, not the chain.