Solayer Labs announced the 2025 roadmap for Solayer InfiniSVM, a hardware-accelerated blockchain designed to increase scalability and performance.
On January 7, Solayer Labs, a refactoring protocol at Solana, announced that its InfiniSVM architecture is based on Shared Virtual Memory and aims to create a globally distributed state machine with high-throughput, low-latency functionality that can run complex decentralized tasks. applications.
🚨New: Solana Foundation introduced SIMD-0215, a proposal to scale Solana’s infrastructure across billions of user accounts. If adopted, Epoch will replace Account Hashing with a lattice-based method and provide efficient, real-time updates of account statuses. pic.twitter.com/hqcs4fTZbl
— SolanaFloor (@SolanaFloor) January 6, 2025
The InfiniSVM blockchain will distribute workloads to dedicated hardware accelerators optimized for specific tasks such as signature checks, transaction filtering, pre-execution simulation, and data storage. This distinguishes it from the traditional model of vertical scaling and fragmented collection. The architecture operates on a hybrid Proof of Authority and Stake consensus mechanism combined with Remote Direct Memory Access communication for speed improvements. These features should strengthen the blockchain when it comes to efficiently managing high transaction volumes.
1/ Timelines and what to expect @anza_xyz doing it to relieve existing network congestion @Solana in our authenticator client application Agave.
The short version is that significant progress has been made to tackle current congestion problems, and we…
— Anza (@anza_xyz) April 5, 2024
Previously, Solana faced network congestion in its authenticator client application. Therefore, Solayer Labs’ roadmap will focus on improvements that will make it easier for developers and users by connecting post-transaction logic within the blockchain to facilitate accounting, arbitrage and liquidation activities. Additionally, cross-chain communications and OAuth integration are expected to facilitate the development process without compromising operational security.
Normally these processes require separate systems or additional coding; This can increase the burden and time requirements on developers and even become tedious. Further incorporation of these features into the blockchain allows developers to save time and effort, resulting in more efficient applications.
For the casual user, this will mean a faster and smoother experience. For example, let’s say someone trades or manages assets. In this case, the blockchain will automatically take over the backend functions, tracking balances in real time or capturing the best prices when executing orders. Users will not have to wait for third-party systems to complete these functions. These features can potentially increase application efficiency.
The roadmap also includes using shared-nothing architectures and hash functions to work on optimal scaling to avoid bottlenecks. An architecture where nothing is shared is completely independent of the systems themselves; that is, no part of the system can slow down or crash the rest. The roadmap highlights the growing importance of hardware-accelerated design in blockchain research.