
This paper presents an approach to accelerate Java applications on RISC-V processors equipped with vector extensions. Our approach utilizes a two-stage compilation chain composed of two open-source compilation frameworks. The first compilation is performed by TornadoVM, a Java Framework that includes a Just-In-Time (JIT) compiler and a runtime system that translate Java Bytecode into OpenCL and SPIR-V. The second compilation is operated by the oneAPI Construction Kit (OCK), a programming framework that translates OpenCL and SPIR-V code into an efficient binary augmented with vector instructions for RISC-V CPUs. We also present a preliminary performance evaluation using matrix multiplication. Results demonstrate a substantial performance improvement in the code generated when compared against functionally equivalent single-threaded and multi-threaded Java implementations, achieving speedups up to 33x and 4.6x respectively.
Performance, Vectorization, Compiler, RISC-V, OCK, JIT Compiler, Java
Performance, Vectorization, Compiler, RISC-V, OCK, JIT Compiler, Java
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