| Time Period | Price Change (USD) | Price Change (%) |
|---|---|---|
| Today | $ -0.00015 | -0.44% |
| 30 Days | $ 0.0025 | +8.15% |
| 60 Days | $ 0.0037 | +12.24% |
| 90 Days | $ 0.010 | +44.94% |
Zama (ZAMA) is the utility token associated with the Zama Confidential Blockchain Protocol, a cryptography-focused infrastructure project designed to bring encrypted computation to existing public chains. The project is built around Fully Homomorphic Encryption, or FHE, which lets applications compute on encrypted data without exposing the underlying inputs. Zama describes its protocol as a cross-chain confidentiality layer rather than a separate general-purpose chain, with an initial focus on enabling confidential smart contracts, encrypted token transfers, and programmable access controls for onchain applications.
For users researching the ZAMA price, the token’s role is tied to protocol usage rather than a generic payment narrative. ZAMA is used for protocol fees, staking, and operator incentives in the Zama Protocol. On a KCEX price page, ZAMA can be understood as exposure to a crypto project focused on confidential computation, developer tooling, and encrypted application design.
The Zama Confidential Blockchain Protocol uses FHEVM, a developer framework that allows smart contracts to handle encrypted data types and encrypted operations. Instead of forcing every host chain to run heavy cryptographic computation directly, Zama separates execution into specialized components. Host contracts manage access control and trigger encrypted computation, while coprocessors verify inputs, perform FHE operations, store ciphertext-related results, and commit outputs back to the protocol. A Gateway coordinates requests, access-control information, encrypted asset bridging, coprocessors, and the Key Management Service.
ZAMA connects to this system through fees and staking. Protocol fees are paid in ZAMA for actions such as verifying encrypted inputs, decrypting ciphertexts, and bridging encrypted values. Zama’s documentation describes a burn-and-mint model in which fees are burned, while new ZAMA rewards can be minted for operators according to the protocol’s emissions model. Token holders may also delegate ZAMA to operators that run core infrastructure such as KMS nodes and coprocessors. This gives the token a coordination role across computation, decryption, staking, and operator rewards inside the Zama Protocol.
The Zama Confidential Blockchain Protocol is designed for applications where public verification is useful but public data exposure is a problem. Long-tail search use cases include encrypted stablecoin payments with hidden balances, confidential token transfers on public chains, sealed-bid onchain auctions, private DeFi transactions, confidential RWA tokenization, encrypted DAO voting, and onchain identity with private credentials. These are not simply messaging features; they require contracts to define who can decrypt specific values and when.
Zama’s tooling also targets builders. Developers can use FHEVM-related libraries, relayer tools, and protocol applications to experiment with confidential smart contracts without needing to design cryptographic primitives from scratch. For market participants following ZAMA on KCEX, these use cases help explain why project adoption depends on real application demand, developer activity, and the cost of running encrypted computation at scale.
ZAMA’s value is influenced by growth in the Zama Protocol ecosystem, adoption of encrypted smart contracts, utility for protocol fees and staking, overall crypto market demand, and factors specific to confidentiality infrastructure. Because the project focuses on encrypted computation, demand may be shaped by both user needs for data protection and the practical cost of using FHE-based applications.
Demand for confidentiality features can influence ZAMA when users, developers, or institutions need onchain applications that avoid exposing balances, bids, identities, or business-sensitive data. If the Zama Protocol becomes a practical way to add encrypted computation to existing applications, more usage could increase fee demand, developer interest, and attention to ZAMA liquidity.
Regulation matters because confidentiality tools must balance user data protection with compliance requirements. Zama emphasizes programmable access controls, meaning applications can define who is allowed to decrypt specific information. If regulated payments, tokenized assets, or identity systems require selective disclosure, clear rules could support adoption; restrictive rules could slow experimentation or limit certain use cases.
Transaction activity is important because ZAMA fees are connected to protocol actions such as encrypted input verification, ciphertext decryption, and encrypted-value bridging. More confidential transfers, auctions, or application interactions can increase practical token utility. Weak activity would reduce visible demand for those fee functions, even if the technology remains relevant.
Community adoption affects ZAMA through developers, delegators, node operators, and users testing confidential applications. A stronger Zama Protocol community can expand documentation feedback, open-source experimentation, staking participation, and application discovery. For an infrastructure token, community quality often matters as much as headline user counts because builders create the demand paths that later users follow.
Network usage measures whether the Zama Protocol is being used for real encrypted computation rather than only watched as a market asset. Higher usage of Gateway requests, coprocessor work, staking, and confidential applications can show that the protocol’s architecture is solving practical problems. Sustained usage can also strengthen the relationship between ZAMA fees, operator incentives, and ecosystem growth.
ZAMA has a coin-specific value driver in its burn-and-mint structure. Protocol fees are designed to be burned, while operator and staking rewards are minted under an emissions schedule. This means market observers may watch the balance between real fee generation, reward issuance, staking participation, and governance changes to understand how token supply dynamics evolve over time.
FHEVM and the Zama Gateway are central to Zama’s differentiation. If developers use FHEVM to build confidential contracts and rely on the Gateway for verification, decryption, and encrypted bridging, ZAMA gains clearer utility within the stack. Adoption of these specific components can separate Zama from broader cryptography narratives by showing concrete infrastructure demand.
Zama (ZAMA) is currently trading at $0.033 USD on KCEX. This reflects a -0.59% change over the past 24 hours.
Zama has a market capitalization of $73.78M USD, ranking #327 among all cryptocurrencies. Market cap is calculated by multiplying the current price by the circulating supply.
The current circulating supply of ZAMA is 2.20B out of a maximum supply of 11.00B. This means approximately 20.00% of all ZAMA that will ever exist is already in circulation.
Zama reached its all-time high of $0.04103617 USD on 2026-04-14. The current price is approximately 18.26% below that peak.
Zama hit its all-time low of $0.01673142 USD on 2026-02-12. Since then, ZAMA has gained over 100.46% from that level.
You can buy ZAMA on KCEX by creating a free account, completing verification, and depositing funds via crypto transfer. ZAMA/USDT is available for both spot trading and futures trading on KCEX.
Zama is currently priced at $0.033 USD with a 24h change of -0.59% and a 7-day change of -0.47%. Investment decisions depend on your own research and risk tolerance - always do your own due diligence before trading.
KCEX offers zero maker fees on ZAMA/USDT spot trading. Taker fees are among the lowest in the industry, making KCEX a cost-effective platform for trading Zama. For a full breakdown of trading fees, visit the KCEX Fee Schedule.