
An EVM address serves as a standardized identifier, or "address plate," within the Ethereum Virtual Machine (EVM) ecosystem. It uniquely identifies an account, which can either be a user-controlled wallet or a smart contract operating on-chain.
The EVM functions as the computational engine for Ethereum and many EVM-compatible blockchains, executing programs within its environment. EVM addresses allow the network to route transactions, delegate authorizations, and determine transaction initiators. You will frequently encounter EVM addresses in wallets, exchanges, and block explorers.
An EVM address is derived from the last 20 bytes of the hash of your public key, with a readable prefix of "0x". The process begins by generating a public key from your private key, hashing this public key to produce a concise, fixed-length identifier.
The private key acts as your "key" to control assets, while the public key—computed from the private key—is a public "fingerprint." Hashing compresses this data into an irreversible fingerprint. The typical process is: use an elliptic curve algorithm to derive the public key from your private key, hash the public key with Keccak-256, and take the last 20 bytes to form the EVM address. The resulting address starts with "0x" followed by 40 hexadecimal characters.
There are two main types of EVM addresses: EOAs (Externally Owned Accounts) and contract addresses. EOAs are directly controlled by individuals or organizations via private keys; contract addresses are governed by smart contract code, with behavior dictated by logic rather than human input.
An EOA is akin to a bank account you personally manage—signatures authorize transfers. A contract address resembles a vending machine that executes predefined actions upon receiving specific inputs. Contract addresses are typically derived from the creator's address and a creation sequence number (nonce), making them predictable—a useful feature for pre-calculating deployment addresses.
EVM addresses always start with "0x" and are followed by 40 hexadecimal characters (a total of 20 bytes). While machines accept both uppercase and lowercase forms, manual entry can lead to errors.
To minimize mistakes, EIP-55 introduced a mixed-case checksum: letter capitalization is determined by the address's own hash, providing an easily readable validation layer. Most wallets and tools display addresses in EIP-55 format; when copying, preserve the original case for optimal validation. All-lowercase is still machine-readable but lacks checksum protection.
The generation and format of EVM addresses remain consistent across multiple compatible chains—such as BSC, Polygon, Arbitrum, Optimism, Avalanche C-Chain, Base—because all follow EVM standards.
Note: The "same private key" yields identical-looking EVM addresses on different compatible chains. However, each chain's balance and state are isolated; for example, your BSC balance will not appear automatically on Ethereum Mainnet or Polygon. Bridging assets between chains requires using cross-chain bridges or exchange deposit/withdrawal functions.
On exchanges, EVM addresses are primarily used for deposits and withdrawals. It is crucial to select the correct network and ensure that the address matches the asset type.
Step 1: On Gate, select your desired asset and network. For example, choose USDT and then "ETH (ERC-20)" or "BSC (BEP-20)." While the displayed receiving address format is identical across networks, each corresponds to a different blockchain's balance.
Step 2: Copy the EVM address shown by Gate and initiate a transfer from your wallet or another source to this address. To reduce risk, test with a small amount before making larger transfers.
Step 3: Wait for network confirmation. You can check deposit status on the Gate asset details page. When withdrawing, always select a network compatible with the recipient to avoid cross-chain errors.
The most frequent risk is choosing the wrong network. Sending tokens from BSC to an Ethereum Mainnet EVM address does not move assets automatically; you may need a cross-chain bridge to recover them—or recovery may be impossible if unsupported.
Another risk is address entry errors. To avoid mistakes, use copy-paste or QR codes, enable address whitelisting, and always test with small transactions first. While EIP-55 aids human verification, do not rely solely on visual checks.
There is also the risk of malicious authorization. Granting permissions to certain DApps may give contracts excessive control over your tokens. Regularly review and revoke unnecessary authorizations in your wallet or via block explorers to prevent misuse of assets by malicious contracts.
Blockchain ledgers are public; anyone can view transaction history and balances linked to an EVM address. Using one address for all activities increases traceability and exposes personal profiles.
A more secure practice is to use separate addresses for different purposes: one for long-term holdings and withdrawals, one for interactions and airdrops, one for testing and micro-payments. Be cautious when mapping readable domain names (such as on-chain naming services) to primary addresses—this can overly bind identity and assets.
As of late 2025, account abstraction (notably ERC-4337) is rolling out across various EVM-compatible chains, making "smart accounts" more user-friendly. While EVM addresses remain central for account identification, more will be associated with contract accounts supporting delegated payments, social recovery, and flexible permission schemes.
This evolution means users need not rely solely on private key management for security and usability. Meanwhile, cross-chain and privacy tools will continue to improve; however, the principle remains—addresses are universal, but balances are chain-specific. Choosing the right network and managing authorizations carefully remain essential practices.
Technically, EVM addresses are not case-sensitive since they represent hexadecimal numbers. However, to prevent entry errors, the Ethereum community adopted the EIP-55 checksum format that encodes validation information using upper- and lowercase letters. Always preserve the original case when copying/pasting—manual modification can lead to failed transactions or loss of funds.
EVM addresses are fixed strings; funds sent go directly to the entered account. If you input an incorrect address, assets are sent to a stranger's account—typically unrecoverable. Always triple-check before transferring: verify the first and last digits, use copy-paste over manual entry, and leverage address book functions on platforms like Gate to reduce risks.
Yes—the same address on these EVM-compatible chains corresponds to the same private key. Important note: assets on each chain are independent; you must select the correct blockchain network when transferring funds. For example, USDT on Polygon is distinct from USDT on Ethereum Mainnet—choosing the wrong chain may result in lost access or irrecoverable funds.
"0x" is a standard prefix indicating that the following string is hexadecimal. EVM addresses use this prefix to distinguish themselves from other data formats so wallets and smart contracts can recognize them accurately. Platforms like Gate typically handle the prefix automatically—but if entering manually, be sure to include "0x" or your address may not be recognized by the system.
Use features like address books on platforms such as Gate to add notes or labels (e.g., "cold wallet," "trading account") for each address. Securely store each private key or mnemonic phrase separately—do not mix them up. If using hardware or multisig wallets, document each address’s purpose and recovery method; periodically back up critical information offline in secure locations.


