The course "Multicore and GPGPU Programming" provides a foundational understanding of parallel programming, focusing on developing high-performance, multi-threaded applications in both CPU and GPU environments. Beginning with a review of multicore processor architectures, caching mechanisms, and Non-Uniform Memory Access (NUMA) systems, students will learn the essentials of shared memory programming, synchronisation techniques, and the use of locks to ensure data integrity across threads. The course delves into designing shared memory data structures and introduces advanced synchronisation concepts, including lazy synchronisation, crucial for scalable and efficient concurrent applications. Additionally, students will explore the architecture and programming model of General-Purpose Graphics Processing Units (GPGPUs) and learn CUDA programming to leverage GPU parallelism for compute-intensive tasks. By the end of the course, students will be adept in optimising multi-threaded and many-core applications, balancing workload across CPUs and GPUs to achieve high throughput and efficient resource utilisation. This course is essential for those aiming to develop expertise in high-performance computing and parallel programming for modern multi-core and GPU-based systems.
What you'll learn
understand multicore processor architectures
apply shared memory programming techniques
implement synchronization mechanisms
design shared memory data structures
utilize CUDA programming for GPGPU tasks
Course objectives
equip students with skills for high-performance computing
improve understanding of parallel programming concepts
enable optimization of multi-threaded applications