> For the complete documentation index, see [llms.txt](https://docs.botanixlabs.com/botanix/llms.txt). Markdown versions of documentation pages are available by appending `.md` to page URLs; this page is available as [Markdown](https://docs.botanixlabs.com/botanix/get-to-know-botanix/intermediate/ethereum-virtual-machine-evm.md).

# Ethereum Virtual Machine (EVM)

### What is the EVM?

The Ethereum Virtual Machine (EVM) is a piece of software that executes smart contracts and computes the state of the Botanix network after each new block is added to the chain. Think of it as the engine that powers all decentralized applications on the network.

The EVM sits on top of Botanix's hardware and node network layer. Its main purpose is to compute the network's state and run various types of smart contract code, compiling them into bytecode (machine-readable code that the EVM can execute).

### Why EVM for Bitcoin?

Botanix Labs chose EVM compatibility to unlock Bitcoin's potential while leveraging the most mature smart contract ecosystem in crypto. This strategic decision brings several key advantages:

**Proven Ecosystem**: The Ethereum Foundation has led the way in composable smart contract development, creating an ecosystem with the largest number of applications and developers. Rather than starting from scratch, Botanix taps into this established foundation.

**Developer Accessibility**: EVM compatibility means developers can port their dApps or tokens from Ethereum to Botanix with relative ease. Smart contracts deployed on EVM-compatible chains like Polygon, Avalanche, or Ethereum can be recognized by Botanix nodes without modification.

**Battle-Tested Security**: Solidity smart contracts benefit from the Lindy effect—the idea that older, battle-tested technology is more trustworthy. With billions of dollars secured by Solidity contracts, they experience higher levels of trust and familiarity compared to newer programming languages.

### What This Means for Users

EVM compatibility transforms Bitcoin from a simple store of value into a platform for sophisticated financial applications. Bitcoin users can now access the same types of applications available on Ethereum—from Uniswap-style DEXs to Aave-style lending protocols—but secured by Bitcoin's unmatched security and decentralization.

This means you can:

* Trade tokens on decentralized exchanges
* Lend and borrow assets
* Participate in yield farming
* Trade NFTs
* Use familiar wallets like MetaMask

### Technical Implementation

On Botanix, the EVM processes transactions and maintains network state while Bitcoin's proof-of-work provides final settlement and security. This hybrid approach combines Ethereum's programmability with Bitcoin's security model.

The EVM's composability (how different protocols can work together like building blocks) enables complex financial products and services that would be impossible on Bitcoin alone.

### Programming Language Choice

While other blockchains have chosen different paths—Solana with Rust, Starkware with Cairo—Botanix Labs opted for Solidity compatibility. From a programming language perspective, Solidity has established a stronghold in the crypto world, making it the clear choice for attracting developers and ensuring compatibility with existing tools and applications.

This decision means developers can use familiar tools like:

* Solidity for smart contract development
* Hardhat for development frameworks
* Remix for online development
* Web3.js and ethers.js for frontend integration

### Learn More

For deeper technical understanding, explore these resources:

* [Ethereum Virtual Machine (Ethereum.org)](https://ethereum.org/en/developers/docs/evm/)
* [What is Ethereum Virtual Machine (EVM) in Blockchain?](https://medium.com/)


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