What Is Monad? A Beginner's Guide to the High-Speed Blockchain
Monad’s long-term performance, decentralization, and sustainability remain to be proven as the network matures.
- AI summary
- What problem is Monad designed to solve?
- How Monad works
- Full EVM compatibility: why it matters
- Monad vs Ethereum and Solana: a practical comparison
- The MON token: what it does and how it was distributed
- Monad at launch: early results
- What to keep in mind
- Using $MON in Tangem Wallet
- Frequently asked questions
AI summary
Speed, cost, and decentralization. Blockchain developers have spent years trying to optimize all three at once, with limited success. Every major network ends up trading one for the others. Ethereum is decentralized and secure, but slow and expensive during peak hours. Solana is fast and cheap, but achieves that partly through stricter validator hardware requirements and has a history of network outages.
Monad is a Layer-1 blockchain that launched its mainnet in November 2025, claiming to solve this problem through a different architectural approach. Instead of adjusting who validates transactions or how many validators participate, it rethinks how transactions are processed at the execution level.
This guide explains what Monad is, how it works, what the MON token does, and what to keep in mind before engaging with the network.
What problem is Monad designed to solve?
To understand why Monad exists, it helps to know a bit about how most blockchains work.
When you send a transaction on Ethereum, it joins a queue. Validators reach agreement on the order of pending transactions, and then the network processes them one at a time, in sequence. The Ethereum Virtual Machine (EVM) is single-threaded by design: transaction two waits for transaction one to finish, transaction three waits for two, and so on.
This approach is safe and predictable. But it has a ceiling. Processing one transaction at a time means the network can handle only 15-30 transactions per second. When demand surges, the queue backs up, fees rise, and some transactions fail or get delayed.
Other chains have addressed this in different ways. Solana processes transactions in parallel, which helps throughput, but requires validators to run high-end, expensive hardware. Ethereum has built a Layer-2 ecosystem that offloads activity from the main chain, but this fragmentation of liquidity adds complexity for both developers and users.
Monad takes a different approach: keep the Ethereum developer experience intact, keep the validator requirements accessible, and fix the throughput problem at the EVM execution level itself.
How Monad works
Monad separates two things that most blockchains bundle together: agreeing on the order of transactions, and actually executing them.
In most networks, these happen in strict sequence: agree on order, execute, then repeat. In Monad, the network agrees on the order and executes simultaneously in an overlapping pipeline. While one block is being executed, the next is already undergoing consensus.
Within each block, transactions are also processed in parallel across multiple CPU cores rather than one at a time. If two transactions don't touch the same data, they run simultaneously. If they do conflict, the network detects this and re-runs the affected ones, still arriving at the same correct final state.
Four systems work together to make this possible:
- MonadBFT handles consensus. It is designed to finalize blocks in under a second even with a large, globally distributed validator set.
- Asynchronous execution means the network agrees on transaction order first, then executes. Execution never holds up the next consensus round.
- MonadDB is a custom storage engine built for the read and write patterns that parallel execution requires. Standard database designs are not optimized for this kind of workload.
- JIT (just-in-time) compilation converts smart contract code at runtime, speeding up execution further.
The result is a network capable of handling 10,000 transactions per second, with block times of around 0.4 seconds and finality in roughly 0.8 seconds, while running on consumer-grade hardware rather than data-center servers.
Full EVM compatibility: why it matters
One of Monad's most significant practical advantages is that it is fully EVM compatible at the bytecode level. That means any smart contract written for Ethereum will run on Monad without modification.
This is not a given. Many high-performance blockchains require developers to rewrite their applications from scratch. Solana uses a completely different runtime. Sui uses its own Move programming language. Migrating to these networks means significant development work.
On Monad, an Ethereum project can be deployed with the same code, tooling, and developer experience. MetaMask works. Existing Solidity contracts work. The ecosystem tools developers already know work. This dramatically lowers the barrier to adoption for builders.
Monad vs Ethereum and Solana: a practical comparison
Here is how the three networks compare on the metrics that matter most for everyday use:
| Ethereum | Solana | Monad | |
| Transactions per second | ~15-30 | ~2,000-4,000 | ~10,000 (target) |
| Time to finalize a tx | ~5-12 minutes | ~2-13 seconds | ~0.8 seconds |
| EVM compatible? | Yes (native) | No | Yes (full) |
| Validator hardware | Moderate | High-end required | Consumer-grade |
| Fee levels | Variable, can spike | Very low | Near zero |
It is worth noting that Monad's 10,000 TPS figure is a theoretical target based on its architecture. Real-world throughput under sustained load on a live mainnet will ultimately determine whether the design lives up to the benchmark.
The MON token: what it does and how it was distributed
$MON is the native token of the Monad network. It serves three functions:
- Gas fees. Every transaction on Monad requires a small amount of $MON to cover computation costs. Fees are designed to stay very low, given the network's efficiency.
- Staking. Monad uses Proof-of-Stake. Validators stake $MON to secure the network, and delegators can stake with them to earn a share of rewards.
- Ecosystem currency. $MON is the base asset of the Monad economy, used as the primary liquidity pair across DeFi protocols, lending markets, and other applications built on the network.
The total supply is fixed at 100 billion MON. The distribution at launch was: 38.5% to ecosystem development, 27% to the Monad team, 19.7% to investors, 7.5% sold in the public sale on Coinbase at $0.025 per token, 4% to the treasury, and 3.3% distributed via airdrop to early community members and testnet participants.
At mainnet launch, approximately 10.8% of the total supply (around 10.8 billion MON) was unlocked and in circulation. The remainder is subject to vesting schedules over several years.
New $MON is issued as staking and validation rewards. The base transaction fee is permanently burned. Tokens allocated to the team, investors, and treasury are excluded from staking rewards, so insiders cannot earn yield on unvested allocations.
Note on token vesting With roughly 50% of total supply still locked at launch, future token unlocks will be a factor to watch. As team and investor allocations vest over the coming years, this can create additional sell pressure on the market. |
Monad at launch: early results
Monad's public mainnet went live on November 24, 2025. On launch day, the network processed 3.7 million transactions. Within the first two weeks, DeFi total value locked on the network exceeded $245 million. Activity was driven partly by memecoin launches and incentive programs, which spiked TPS to over 350 during peak periods.
The project raised $244 million in venture funding from Paradigm, Coinbase Ventures, and others. Its fully diluted valuation at the time of the Coinbase token sale was approximately $2.5 billion.
In early 2026, the team released the MONAD_NINE network upgrade, aiming to improve execution efficiency, cost predictability, and Ethereum compatibility.
What to keep in mind
Monad's architecture is technically credible, but it is a new network and carries the risks that come with that.
- The 10,000 TPS target is a design goal, not yet a proven live-network result. Sustained high-load performance in production is different from benchmarked conditions.
- Validator decentralization is unproven at scale. Whether the network maintains a genuinely distributed and resilient validator set over time remains to be seen.
- Early ecosystem activity has been partly driven by incentive programs. The more meaningful question is whether developers keep building and users keep transacting once those incentives wind down.
- Significant token supply remains locked. Vesting that unlocks over the next several years will affect the circulating supply and market dynamics.
Using $MON in Tangem Wallet
Monad is fully EVM-compatible, meaning $MON behaves like any other EVM asset. You can store and manage it using any EVM-compatible wallet, including hardware wallets.
As with any new network in its early stages, the ecosystem is growing fast and smart contracts are being deployed at pace. That is exactly the environment where self-custody matters most. Keeping your private keys offline means that even if a dApp, exchange, or web interface is compromised, your assets are not exposed.
Since Tangem supports all EVM-compatible networks, you can manage $MON alongside your other EVM assets in the same wallet. The Tangem app gives you full access to the Monad ecosystem.
Frequently asked questions
Is Monad its own blockchain or built on Ethereum?
Monad is an independent Layer-1 blockchain. It is not built on Ethereum and does not inherit Ethereum's security or validator set. It is EVM-compatible, meaning Ethereum smart contracts run on it unchanged, but the underlying infrastructure is separate.
Can Monad really do 10,000 TPS?
That is the architectural target. Testnet performance was encouraging, and the network's design is built around achieving that figure. Whether it sustains that throughput under real-world conditions over time will become clear as the mainnet matures.
What is $MON used for?
$MON pays for gas fees on every transaction, is used for staking to secure the network, and serves as the base currency across Monad's DeFi ecosystem.
Is Monad safe to use?
The network's architecture is designed to maintain Ethereum-level security with a broad validator set that does not require high-end hardware. That said, it is a new network and its long-term resilience under economic pressure has not yet been tested. As always, using self-custody and doing your own research before interacting with any protocol is advisable.
How is Monad different from Solana?
Both aim for high throughput, but they take different routes. Solana requires validators to run expensive, high-spec hardware, which raises the barrier to participation and has contributed to past concerns about centralization. Monad targets the same performance level using consumer-grade hardware, and preserves full EVM compatibility, meaning Ethereum developers can port their work directly without a rewrite.
This article is for educational purposes only and does not constitute financial advice.