Rabby Wallet: Can You Use It Across 100+ EVM Chains? (Complete Network List)

An Ethereum user holds tokens across Arbitrum, Optimism, and Polygon, but switching networks in most wallets requires manual configuration for each chain. The practical friction is real: finding the correct RPC endpoint, entering chain identifiers, and avoiding typos that could send funds to the wrong network. A wallet designed for multi-chain Ethereum compatibility should recognize these networks automatically, display accurate balances across chains, and allow seamless interaction with decentralized applications on any EVM-compatible blockchain without repeated setup steps.

Rabby Wallet addresses this problem by building automatic network recognition into its core design. Rather than requiring users to manually add each Ethereum Virtual Machine–compatible chain, the wallet identifies and switches between dozens of supported networks, from major Layer 2 solutions to smaller sidechains and rollups. The question is not simply whether Rabby supports many networks—it does—but whether that support extends across the 100+ EVM chains in active use, how seamless the experience actually is, and which networks still require manual configuration despite the wallet’s broad compatibility base.

How Rabby recognizes EVM networks automatically

The Ethereum Virtual Machine standard, defined through Ethereum Foundation specifications, creates a common instruction set that allows multiple independent blockchains to execute smart contracts and manage tokens in compatible ways. This compatibility is what makes automatic network recognition possible. Rather than hardcoding a list of chains, Rabby uses network identifiers and RPC endpoints to detect when a website or application requests a connection to a specific blockchain.

When a decentralized application connects to the wallet through the injected Ethereum provider, it broadcasts its network chain ID. Rabby maintains a registry of known chain IDs and their associated metadata—the network name, native token symbol, block explorer URL, and RPC endpoints. If the chain ID matches an entry in this registry, the wallet automatically loads the correct network configuration without user intervention. This approach scales across dozens of networks because the wallet operator updates the registry rather than requiring each user to manually add chains.

The practical consequence is visible: open a decentralized exchange on Arbitrum, and the wallet recognizes Arbitrum. Switch to an Optimism application, and the wallet switches to Optimism. For users accustomed to wallets that require manual network switching, this behavior feels almost automatic—until a chain is encountered that the wallet has not yet registered, at which point the distinction becomes clear.

The complete list of supported EVM chains

Rabby’s network support spans major Layer 2 solutions, sidechains, and smaller rollups. The primary networks include Ethereum mainnet, Arbitrum One, Arbitrum Nova, Optimism, Optimism Base, Polygon (Matic), Polygon zkEVM, Gnosis Chain, Avalanche C-Chain, Fantom, Moonbeam, Moonriver, Harmony One, Cronos, Canto, and zkSync Era. This baseline covers most of the liquidity and user activity in the EVM ecosystem.

Secondary networks expand the list to include Linea, Scroll, Mantle, Manta Pacific, Blast, Zora Network, Mode Network, and Taiko. These represent newer Layer 2 solutions and experimental chains that have gained adoption but do not yet dominate transaction volume. Smaller sidechains and EVM-compatible networks—such as Boba, Fuse, Oasis, Conflux, Metis, Astar, Shiden, Aurora, Celo, Karura, Acala, and HECO—are also included.

The complete count varies depending on whether test networks are included and how frequently the wallet’s chain registry is updated. Active chains in production number between 50 and 70 depending on the Rabby version and recent updates. Testnet support adds Sepolia, Goerli, Polygon Mumbai, Arbitrum Sepolia, Optimism Sepolia, Scroll Sepolia, and others, bringing the practical total closer to 80 to 100 networks when development environments are counted.

Manual network addition for chains not yet recognized

Despite broad support, not every EVM chain appears in Rabby’s default registry. A new rollup, a private corporate blockchain, or a regional sidechain may exist but lack the automated recognition that more established networks receive. In these cases, users can manually add the network by providing the necessary chain parameters directly to the wallet.

The process requires the chain ID, network name, RPC URL, block explorer URL, and the native token symbol and decimals. These details are typically published on the network operator’s website or in blockchain directories. Once entered, the manually added network behaves identically to auto-recognized chains within the wallet—balances display, transactions process, and decentralized applications can connect if they request the correct chain ID.

Manual addition is not a drawback but a feature that prevents the wallet from becoming obsolete when new chains launch. A user can remain current with emerging networks without waiting for the Rabby team to update their registry. However, it also places responsibility on users to verify that the RPC endpoint, chain ID, and block explorer URL are correct before saving the configuration. A misconfigured endpoint can cause transaction failures, and an incorrect chain ID can send funds to an unintended network.

Transaction simulation and risk alerts across networks

One of Rabby’s distinguishing features is transaction simulation before signing. When a decentralized application requests a transaction—whether it is a token swap, a liquidity deposit, or a contract interaction—Rabby simulates the transaction locally to predict the outcome before the user approves it. This simulation runs on the target network, whether that is Ethereum, Arbitrum, Optimism, or any other supported blockchain.

The wallet can interpret many common transaction types and display what will happen: which tokens will be received, which fees will be charged, and whether the transaction is likely to fail based on current network conditions. For a swap on Uniswap on Optimism, for example, the simulation shows the expected output, slippage, and route. If the simulated outcome is significantly worse than the user expected—due to price movement or a low liquidity pair—the wallet alerts the user before they sign.

This feature is valuable precisely because EVM chains share the same programming model. A swap transaction looks similar on Ethereum, Arbitrum, and Polygon from the wallet’s perspective. The simulation logic translates across all networks. What changes is the execution cost: a swap on Ethereum mainnet might cost $50 in gas fees, while the identical logic on Arbitrum might cost $0.05. Users often choose specific chains partly because of these cost differences, making Rabby’s cross-chain visibility especially useful for comparing execution costs before committing to a network.

Balancing automatic switching with user control

Automatic network recognition is convenient, but it also creates a risk: a user might approve a transaction without noticing that the network has changed. Most EVM wallets display the current network prominently to prevent this mistake. Rabby emphasizes this by showing the network name and icon in the transaction approval screen, ensuring that users see not just what they are signing but which chain they are signing on.

Users can also lock the wallet to a specific network if they want to prevent accidental switching. This is useful when working with multiple accounts or chains in sequence—switching chains unintentionally while managing a large portfolio could create costly errors. The toggle remains in the user’s control: the wallet defaults to automatic switching for convenience, but manual override is available.

This design reflects a broader principle in EVM wallet security: automation should increase usability without reducing visibility. A wallet that silently switches networks is not helpful; one that switches networks automatically while prominently displaying the current chain strikes the right balance. According to Ethereum Improvement Proposals standards, wallet providers are expected to clearly indicate network context to prevent user error, and Rabby implements this principle consistently across its supported chains.

NFT and DeFi interaction across the multi-chain landscape

Beyond balance management, Rabby displays and manages NFTs across supported EVM chains. An NFT held on Polygon appears in the wallet’s NFT gallery, alongside NFTs on Ethereum or Arbitrum. This consolidation is especially useful for collectors with holdings scattered across multiple networks. The wallet can facilitate transfers, though moving an NFT between chains typically requires using a bridge application, which is beyond the wallet’s direct transaction signing.

DeFi interactions follow a similar pattern. Whether a user is providing liquidity on Uniswap on Optimism, staking on Arbitrum, or farming on Polygon, each action involves a transaction on that specific chain, simulated and signed through Rabby. The wallet understands the most common DeFi patterns: swaps, approvals, deposits, and withdrawals. More exotic interactions with newly deployed protocols may not be simulated with full detail, but the wallet still signs the transaction safely—simulation helps but is not required for security.

The practical benefit is visible when a user has capital on multiple chains and wants to optimize allocation. Instead of juggling separate wallets or manually tracking which assets are where, Rabby consolidates visibility while preserving the isolation that chains provide. Each network operates independently; a problem on one chain does not affect others. That isolation is a design feature of EVM chains and is preserved by any wallet that respects network boundaries.

Hardware wallet connectivity and bridge support

Rabby integrates with hardware wallets such as Ledger and Trezor, allowing users to sign transactions on supported EVM networks without exposing private keys to their computer or phone. This integration extends across all of Rabby’s supported chains—a Ledger user can interact with applications on Ethereum, Arbitrum, Optimism, and dozens of other networks without importing recovery phrases into the wallet application.

Bridge applications that move tokens between EVM chains can also be used through Rabby, though the wallet itself does not include native bridge functionality. A user moving USDC from Ethereum to Arbitrum would typically use a bridge like Stargate or the official Arbitrum bridge, signing transactions through Rabby on each chain. The wallet’s transaction simulation applies to bridge transactions as well, showing the user what they will receive on the destination chain.

Security across this workflow depends on recognizing that different transaction types require different verification. A bridge transaction is irreversible once confirmed on the destination chain, so the simulation step is critical. Users should verify that the token type (native USDC versus bridged USDC), the amount, and the destination chain are all correct before signing. The wallet helps by making these details visible; the user’s attention is ultimately required.

Comparing Rabby’s network support to competitors

Other EVM wallets offer comparable multi-chain support, but the implementation details vary. MetaMask supports automatic network switching for chains it has pre-configured, similar to Rabby. The key difference is that Rabby’s approach emphasizes transaction simulation and risk alerts, while MetaMask emphasizes broad compatibility and ease of connection. Both wallets support manual network addition, and both work across dozens of EVM chains.

Wallets designed for specific chains—such as Phantom for Solana or Uniswap Wallet for concentrated liquidity positions on Ethereum and Layer 2s—offer deeper functionality for their target ecosystem but broader multi-chain support is a deliberate trade-off. Rabby’s design choice is to prioritize EVM compatibility over support for non-EVM blockchains like Bitcoin or Solana, recognizing that users who need Bitcoin and Ethereum support typically use separate wallets or a universal wallet with less specialized EVM tooling.

The rabby wallet is available as a browser extension, mobile app, and desktop application, making the choice of installation method independent of the network support question—a user can run Rabby through their preferred interface while accessing the same 50 to 100 networks. This flexibility is valuable for users who mix devices or want redundancy across installations.

Testing network configuration and avoiding common mistakes

When manually adding an EVM network to Rabby, verification is the critical step. The chain ID is the most important identifier because it determines which network the wallet communicates with. If the chain ID is incorrect, transactions meant for one network can be broadcast to another, potentially resulting in lost funds. Trusted chain registries or official network documentation should be the source, not community forums or unverified sources.

The RPC endpoint URL should also be verified. Using a public RPC endpoint provided by the network operator is safer than using a random endpoint found online. Some RPC providers offer shared or rate-limited endpoints that serve many users; an endpoint that works today might become congested later. For critical transactions, running a private RPC node or using a commercial endpoint with guaranteed performance and uptime is preferable to relying on free public endpoints.

Once a network is added and configured, a test transaction on a small amount verifies that the setup works. Sending a small amount of the native token to yourself and confirming it arrives is a low-cost way to validate that the chain ID, RPC endpoint, and block explorer are all correct. Only after this test should larger amounts be transferred or complex transactions attempted.

The future of EVM wallet support and emerging chains

As new EVM-compatible chains continue to launch, Rabby’s architecture—automatic recognition plus manual addition—ensures the wallet remains useful without requiring complete rewrites. The OpenZeppelin standards for smart contract development have become widely adopted across EVM chains, which further standardizes transaction patterns that wallets can safely interpret and simulate.

Emerging networks that want broad wallet support typically announce chain parameters publicly and coordinate with major wallet providers to add automatic recognition. This process has accelerated as more Layer 2 solutions and rollups launch; the wallet ecosystem has developed clear protocols for onboarding new chains. For users, this means that new EVM networks are increasingly recognized automatically by Rabby upon launch rather than requiring months of manual configuration.

The underlying question for wallet users remains: does automatic network support increase usability more than it increases risk? Rabby’s answer—through automatic recognition, prominent network display, transaction simulation, and manual override options—is that both can be achieved. The wallet does not hide network complexity; it makes that complexity manageable. Users who understand which chain they are on and why they chose it are better equipped to use Rabby’s multi-chain capabilities safely.