Solayer

Solayer has previously established its foundation from its staking infrastructure on Solana with the launch of native SOL staking which accumulated $350 million in TVL. Additionally, Solayer has launched the first yield-bearing stablecoin backed by T-bill yield on Solana, Solayer USD (sUSD). sUSD introduces a stable, yield-bearing option, while allowing users to secure decentralized services.

Solayer is now launching InfiniSVM, a high throughput and near-zero latency blockchain. This is made possible by leveraging Infiniband technology, dedicated hardware to enable wire-speed execution, and multi-executor clusters to power the fastest edge distributed processing.

InfiniSVM advocates for a multi-executor, hardware-accelerated SVM network. It uses Software-defined Networking (SDN) switches and Remote Direct Memory Access (RDMA) to dynamically shard a single execution machine of SVM, to infinite machines, as applications demand it.

By offloading every component of Solana onto programmable hardware switches, it scales Solana infinitely while preserving a global atomic state. The architecture decomposes critical pipeline stages into microservices to scale non-atomic components like ingress and state publishing, hardware acceleration for scheduling and locking, a sharded database for scaling storage, and a new hybrid consensus protocol based on Solana that guarantees both security and low latency.

To further increase usability, InfiniSVM introduces chain-level support of hooks, cross-chain contract calls, jumbo transactions, seamless wallet support, and OAuth-based signers. Overall, it aims to become the most user-friendly chain with 1M+ TPS and 100Gbps+ bandwidth.

Remote Direct Memory Access (RDMA) enables zero-copy data transfer directly between application memory spaces across the network. This architecture bypasses traditional operating system networking stacks, eliminating context switches and CPU overhead associated with network I/O processing. InfiniBand is a prominent implementation of RDMA, offering a high-speed, low-latency networking architecture tailored for high-performance computing and data center environments. Its efficiency and scalability have led to widespread adoption in distributed machine learning and other data-intensive applications.

Software-defined Networking (SDN) separates the control plane from the data plane, enabling programmatic control over network behavior through a logically centralized controller. This programmability enables implementation of complex network functions like load balancing, traffic engineering, and network virtualization directly in the data plane while maintaining line-rate performance.