Developers and institutions are gaining a new way to deploy advanced Web3 applications, as Cubist brings confidential compute to mainnet for private and verifiableDevelopers and institutions are gaining a new way to deploy advanced Web3 applications, as Cubist brings confidential compute to mainnet for private and verifiable

Cubist launches confidential compute platform for Web3 production on mainnet networks

confidential compute

Developers and institutions are gaining a new way to deploy advanced Web3 applications, as Cubist brings confidential compute to mainnet for private and verifiable off-chain logic.

Cubist debuts Confidential Cloud Functions on mainnet

In San Diego, security-focused Web3 infrastructure provider Cubist announced the general availability and production rollout of its Cubist Confidential Cloud Functions (C2F), described as the first Web3 confidential compute platform running live systems on mainnet networks. The platform combines off-chain privacy and speed with on-chain style guarantees, enabling private, compute-intensive and cross-chain logic.

As decentralized applications become more sophisticated, teams typically face a painful tradeoff. They can keep logic entirely on-chain and accept high gas costs, performance limits and full public data exposure. Alternatively, they can move logic off-chain and lose the cryptographic assurances of a smart contract. C2F aims to remove this dilemma by letting developers execute sensitive, custom code in tamper-proof hardware, at scale and across multiple chains.

Moreover, Cubist positions C2F as a new foundation for private smart contracts and verifiable off-chain code, targeting both DeFi protocols and enterprise use cases. The solution is already live in production with Squid, other DeFi projects and institutional clients, according to the company.

How C2F executes private logic at scale

With C2F, developers can write code that uses private data, external API calls, real-time market feeds or sensitive business logic in familiar programming languages. They then deploy that code through existing CI/CD pipelines, avoiding the need to adopt entirely new development workflows or tooling.

Each C2F execution runs inside a secure Trusted Execution Environment (TEE). This hardware-backed enclave ensures that the deployed code cannot be modified or influenced by the host system and that inputs and outputs remain confidential. However, the system still exposes cryptographic attestations, so counterparties can verify exactly what code ran.

That said, the design targets production-grade reliability rather than experimental use. Cubist emphasizes that C2F is live today and powering real systems, not just testnet pilots, which is a key differentiator in the current infrastructure landscape.

Private smart contracts across any chain

C2F enables teams to build private smart contracts, defined here as off-chain logic that enforces contract-like rules at low cost while optionally keeping signing logic hidden from observers. This execution model supports complex workflows that may be impractical or impossible entirely on-chain.

Because the logic is inherently any-chain, teams can write applications once and deploy them across multiple networks. They can also coordinate activity between chains that do not natively support smart contracts, unlocking new designs around liquidity, settlement and risk management.

Moreover, Cubist reports that teams are using C2F-powered private smart contracts for instant private multi chain swaps, private compliance-aware tokenization, programmable escrows and on-chain settlement logic. The company argues that many of these applications simply were not feasible with previous infrastructure, especially on non-smart-contract chains.

Verifiable off-chain code and institutional controls

Beyond private execution, C2F supports verifiable off chain code for critical decision points. In this model, the C2F workload sits in front of sensitive actions and creates a detailed, verifiable record of what logic authorized the action and why it did so.

This design gives regulators, partners and internal risk teams cryptographic evidence about which code path executed, providing a strong audit trail. That said, the underlying data and logic can remain confidential, balancing transparency with privacy for institutional users.

According to Cubist, this foundation enables institutional-grade controls, automated liquidation and repayment mechanisms, proactive risk engines that respond to real-time data and more. Moreover, all of these workflows can include verifiable audit trails suitable for regulatory or compliance reviews.

Squid adopts C2F for cross-chain liquidity

C2F is already integrated into the latest version of Squid‘s Cross-Chain Order Routing and Auction Layer (CORAL). Squid is a leading cross-chain liquidity provider focused on fast, reliable swaps across heterogeneous networks.

“We are thrilled to partner with Cubist to supercharge Squid’s cross-chain liquidity network. By leveraging Cubist Confidential Cloud Functions, we have replaced on-chain smart contracts with private, off-chain logic, enabling sub-second swaps across EVM, non-EVM and even non-smart contract chains like Bitcoin, all with higher reliability and better pricing,” said Fig, Co-Founder of Squid.

Fig added that Squid chose Cubist for its security guarantees and non-custodial design, which align with the project’s decentralization principles. Moreover, he emphasized the goal of delivering seamless solutions for both institutional and retail users as cross-chain activity grows.

Cubist’s vision for Web3 infrastructure

Cubist Co-Founder and CTO Fraser Brown framed C2F as a response to long-standing limitations in Web3 tooling. “Web3 has opened up exciting possibilities across finance and beyond, yet developers are still constrained by tools that force them to choose between transparency and privacy, or between trust and performance,” he said.

“C2F is different: it is live today, built specifically for the demands of production systems and already enabling teams to build what simply was not possible before, from enforcing smart contract logic on chains that do not support smart contracts, to applying custom, auditable signing rules to high-value transactions,” Brown continued. “We are proud to be the first to deliver this solution in production and look forward to making off-chain logic enforcement a standard part of every Web3 tech stack.”

That said, Cubist also highlights integration depth as a competitive advantage. C2F works with CubeSigner, the company’s secure-by-design, non-custodial key storage and signing infrastructure, and connects to existing key management systems, which should ease enterprise adoption.

Availability, integrations and architecture

C2F is now generally available, and teams can request a demo or access a test environment to evaluate performance and security properties. Moreover, its integration with CubeSigner allows organizations to define custom signing policies that are enforced by verifiable code running inside TEEs.

The platform is intended to support off chain confidential compute for a wide range of Web3 and fintech applications, from DeFi protocols to tokenization platforms and exchanges. Because it operates across multiple chains and leverages hardware-backed isolation, it also aligns with emerging enterprise requirements around data protection and regulatory compliance.

Developers can incorporate C2F as a building block for cross chain private execution, complex governance workflows and risk engines, while retaining the performance benefits of off-chain processing. However, they still obtain strong assurances about what code executed and under which conditions.

About Cubist

Cubist is a key management infrastructure company founded in 2022 and backed by investors including Polychain, dao5, Blizzard and Paxos. The founding team includes a former fintech COO and professors from Carnegie Mellon University and the University of California San Diego, who together have published more than 90 peer-reviewed security-related papers.

Members of the Cubist team have designed and specified cryptography for networks such as Ethereum and Avalanche, deployed fine-grained isolation in Firefox, discovered serious bugs in Google Chrome and Linux, and built automated reasoning tools used by companies like Amazon and Certora.

In summary, Cubist’s C2F platform brings hardware-backed privacy and verifiable execution to mainnet Web3 environments, offering developers a way to combine off-chain performance with on-chain style guarantees across multiple blockchains.

Market Opportunity
Cloud Logo
Cloud Price(CLOUD)
$0.07971
$0.07971$0.07971
-3.27%
USD
Cloud (CLOUD) Live Price Chart
Disclaimer: The articles reposted on this site are sourced from public platforms and are provided for informational purposes only. They do not necessarily reflect the views of MEXC. All rights remain with the original authors. If you believe any content infringes on third-party rights, please contact service@support.mexc.com for removal. MEXC makes no guarantees regarding the accuracy, completeness, or timeliness of the content and is not responsible for any actions taken based on the information provided. The content does not constitute financial, legal, or other professional advice, nor should it be considered a recommendation or endorsement by MEXC.

You May Also Like

More On-Chain Activity as Over 131,000 Cardano Transactions Feature NIGHT Tokens

More On-Chain Activity as Over 131,000 Cardano Transactions Feature NIGHT Tokens

The launch of NIGHT, the native token of Midnight, has significantly impacted the number of transactions across the broader Cardano ecosystem. Cardano founder Charles
Share
Coinstats2025/12/18 15:13
What is Ethereum’s Fusaka Upgrade? Everything You Need to Know

What is Ethereum’s Fusaka Upgrade? Everything You Need to Know

Over the past few weeks, one of the most talked-about topics within the crypto community has been Ethereum’s Fusaka upgrade. What exactly is this upgrade, and how does it affect the Ethereum blockchain and the average crypto investor? This article will be the only explainer guide you need to understand the details of this upgrade within the Ethereum ecosystem. Why Does Ethereum Undergo Upgrades? To understand what the Fusaka upgrade will achieve, it is essential to comprehend what Ethereum’s upgrades aim to accomplish. The layer-1 Ethereum network was originally designed as a proof-of-work (PoW) blockchain. This implied that miners were actively behind the block mining process. While this consensus mechanism ensured security for the L1 blockchain, it also triggered slower transactions. The Ethereum development team unveiled a detailed roadmap, outlining various upgrades that will fix most of the network’s issues. These problems include its scalability issue, which refers to the network’s ability to process transactions faster. Currently, the Ethereum blockchain processes fewer transactions per second compared to most blockchains using the proof-of-stake (PoS) consensus mechanism. Over the past decade, Ethereum’s developers have implemented most of these upgrades, enhancing the blockchain’s overall performance. Here is a list of the upgrades that Ethereum has undergone: Frontier: July 2015 Frontier Thawing: September 2015 Homestead: March 2016 DAO Fork: July 2016 Tangerine Whistle: October 2016 Spurious Dragon: November 2016 Byzantium: October 2017 Constantinople: February 2019 Petersburg: February 2019 Istanbul: December 2019 Muir Glacier: January 2020 Berlin: April 2021 London: August 2021 Arrow Glacier: December 2021 Gray Glacier: June 2022 The Merge: September 2022 Bellatrix: September 2022 Paris: September 2022 Shanghai: April 2023 Capella: April 2023 Dencun (Cancun-Deneb): March 2024 Pectra (Prague-Electra): May 2025 Most of these upgrades (forks) addressed various Ethereum Improvement Proposals (EIPs) geared towards driving the blockchain’s growth. For instance, the Merge enabled the transition from the PoW model to a proof of stake (PoS) algorithm. This brought staking and network validators into the Ethereum mainnet. Still, this upgrade failed to unlock the much-needed scalability. For most of Ethereum’s existence, it has housed layer-2 networks, which leverage Ethereum’s infrastructure to tackle the scalability issue. While benefiting from the L1 blockchain’s security and decentralization, these L2 networks enable users to execute lightning-fast transactions. Last year’s Dencun upgrade made transacting on layer-2 networks even easier with the introduction of proto-danksharding (EIP-4844). Poised to address the scalability issue, this upgrade introduces data blobs. You can think of these blobs as temporary, large data containers that enable cheaper, yet temporary, storage of transactions on L2 networks. The effect? It reduces gas fees, facilitating cheaper transaction costs on these L2 rollups. The Pectra upgrade, unveiled earlier this year, also included EIPs addressing the scalability issue plaguing the Ethereum ecosystem. The upcoming upgrade, Fusaka, will help the decade-old blockchain network to become more efficient by improving the blob capacity. What is Ethereum’s Fusaka Upgrade? Fusaka is an upgrade that addresses Ethereum’s scalability issue, thereby making the blockchain network more efficient. As mentioned earlier, Fusaka will bolster the blob capacity for layer-2 blockchains, which refers to the amount of temporary data the network can process. This will help facilitate faster transactions on these L2 scaling solutions. It is worth noting that upon Fusaka’s completion, users will be able to save more when performing transactions across layer-2 networks like Polygon, Arbitrum, and Base. The upgrade has no direct positive impact on the L1 blockchain itself. On September 18th, Christine Kim, representing Ethereum core developers, confirmed the launch date for Fusaka via an X post. Following an All Core Developers Consensus (ACDC) call, the developer announced that the Ethereum Fusaka upgrade will take place on December 3rd. Ahead of the upgrade, there will be three public testnets. Fusaka will first be deployed on Holesky around October 1st. If that goes smoothly, it will move to Sepolia on October 14th. Finally, it will be on the Hoodi testnet on October 28th. Each stage provides developers and node operators with an opportunity to identify and address bugs, run stress tests, and verify that the network can effectively handle the new features. Running through all three testnets ensures that by the time the upgrade is ready for mainnet, it will have been thoroughly tested in different environments. Crucial to the Fusaka upgrade are the Blob Parameter Only (BPO) forks, which will enhance the blob capacity without requiring end-users of the blockchain network to undergo any software changes. For several months, the Ethereum development team has been working towards unveiling the BPO-1 and BPO-2 forks. Blockchain developers have pooled resources to develop Fusaka through devnets. Following performances from devnet-5, developers within the ecosystem confirmed that the BPO upgrades will come shortly after the Fusaka mainnet debut. Approximately two weeks after the mainnet launch, on December 17th, the BPO-1 fork will increase the blob target/max from 6/9 to 10/15. Then, two weeks later, on January 7th, 2026, the BPO-2 fork is expected to expand capacity further to a metric of 14/21. Ultimately, the Fusaka upgrade would have doubled the blob capacity, marking a pivotal move for the Ethereum ecosystem. Impact on the Ethereum Ecosystem Admittedly, the Ethereum ecosystem is expected to see more developers and users join the bandwagon. With the introduction of faster and cheaper transactions, developers and business owners can explore more efficient ways to build on the L1 blockchain. This means we can see initiatives like crypto payment solutions and more decentralized finance (DeFi) projects enter the Ethereum bandwagon. Users, on the other hand, will benefit as they execute cheaper on-chain transactions. Despite the benefits from this initiative, some in the crypto community worry about the reduction in Ethereum’s gwei (the smallest unit of the Ether coin). Shortly after the Dencun upgrade, Ethereum’s median gas fee dropped to 1.7 gwei. Fast-forward to the present, and the median gas fee sits at 0.41 gwei, according to public data on Dune. This drop hints at the drastic reduction in gas fees, which could affect those staking their crypto holdings on the L1 blockchain, making it less attractive to stakers. Since the Fusaka upgrade aims to reduce the L2 network gas fee further, some observers may worry that crypto stakers will receive fewer block rewards. Time will tell if the Ethereum development team will explore new incentives for those participating in staking. Will Ether’s Price Pump? There is no guarantee that Ether (ETH) will jump following Fusaka’s launch in December. This is because the second-largest cryptocurrency saw no significant price movement during past major upgrades. According to data from CoinMarketCap, ETH sold for approximately $4,400 at the time of writing. Notably, the coin saw its current all-time high (ATH) of $4,900 roughly a month ago. The price pump was fueled by consistent Ether acquisitions by exchange-traded fund (ETF) buyers and crypto treasury firms. Source: CoinMarketCap Although these upgrades do not guarantee a surge in ETH’s price, they have a lasting impact on the underlying Ethereum blockchain. Conclusion Over the past 10 years, the Ethereum network has had no rest as it constantly ships out new upgrades to make its mainnet more scalable. The Fusaka upgrade aims to make Ethereum layer-2 networks cheaper to use. To ensure its smooth usage, several testnets are lined up. Stay tuned for updates on how Ethereum will be post-Fusaka. The post What is Ethereum’s Fusaka Upgrade? Everything You Need to Know appeared first on Cointab.
Share
Coinstats2025/09/20 06:57
Vitalik Buterin Suggests Simplifying Ethereum to Boost User Understanding

Vitalik Buterin Suggests Simplifying Ethereum to Boost User Understanding

The post Vitalik Buterin Suggests Simplifying Ethereum to Boost User Understanding appeared on BitcoinEthereumNews.com. Ethereum trustlessness requires broader
Share
BitcoinEthereumNews2025/12/18 15:13