AI Computing
Exploring compute architectures for machine learning, inference, and data-intensive AI workloads—with attention to throughput, latency, and energy use.
ACSS is an advanced computing and semiconductor technology initiative focused on exploring next-generation processor architectures, intelligent hardware, and energy-efficient computing systems.
An AI-powered engineering assistant designed to accelerate semiconductor design, hardware development, and VLSI workflows.
Support for RTL development, debugging, and hardware design workflows.
Assist engineers with design analysis, error detection, and verification workflows.
Help streamline repetitive engineering tasks and accelerate hardware development.
Designed to support semiconductor engineers throughout digital design and implementation workflows.
ACSS (Advanced Computing and Semiconductor System) is an engineering-led technology initiative exploring the foundations of future computing. Its interests span processor and accelerator architectures, semiconductor devices, digital systems, and the movement of data through modern computing platforms. Our aim is to connect ideas across the computing stack—from device-level behaviour and circuit design to architecture, software-aware optimization, and system-level efficiency.
ACSS is guided by a practical research mindset: understand the workload, study the hardware bottleneck, evaluate architectural choices, and measure the trade-offs. We value clear experiments, reproducible engineering, thoughtful design, and responsible innovation. We are interested in the relationship between performance, power, memory movement, reliability, and implementation complexity—not performance in isolation.
ACSS explores the hardware, semiconductor, and architecture technologies shaping next-generation computing. Select any technology area below to explore its engineering concepts and research interests.
Exploring compute architectures for machine learning, inference, and data-intensive AI workloads—with attention to throughput, latency, and energy use.
Studying parallel execution, GPU compute organization, memory access patterns, and kernel-level performance for demanding workloads.
Examining transistor behaviour, device scaling, nanosheet and gate-all-around concepts, and the device-level trade-offs that influence circuits.
Working across digital logic, RTL design, functional verification, synthesis, physical-design concepts, timing, and implementation-aware engineering.
Investigating caches, on-chip memory, data locality, bandwidth, data movement, and techniques that can reduce energy and latency.
Bringing device, circuit, architecture, and software perspectives together to evaluate complete computing systems and practical design trade-offs.
ACSS takes a cross-layer view of computing. We explore how workloads, architectures, circuits, and semiconductor devices interact—and how measured evidence can guide better design decisions.
Study application behaviour, performance requirements, bottlenecks, data movement, and the constraints that shape a computing problem.
Investigate candidate architectures, digital structures, memory strategies, and semiconductor concepts through modelling and design.
Use simulation, verification, implementation flows, and quantitative comparisons to understand trade-offs in performance, power, and complexity.
We envision a future where artificial intelligence is powered by purpose-built, high-performance, and energy-efficient computing systems. ACSS aims to explore and contribute to the evolution of AI accelerators, advanced processor architectures, and intelligent hardware designed for increasingly demanding AI workloads.
Our vision extends across the computing stack—from semiconductor devices and digital circuits to GPU architectures, memory systems, AI accelerator design, and hardware-software co-optimization. We are particularly interested in improving computational efficiency, reducing data movement, optimizing memory utilization, and developing architectures that balance performance, power, scalability, and reliability.
Through research, experimentation, and engineering, ACSS seeks to contribute to a new era of AI hardware innovation—where intelligent systems are not only more powerful, but also more efficient and accessible.
Exploring specialized computing architectures for machine learning, inference, and emerging AI workloads.
Investigating the interaction between processors, semiconductor devices, memory systems, and AI software.
Studying performance, power, data movement, and memory efficiency for future computing platforms.
For research discussions, technical exchange, and potential engineering collaborations in advanced computing and semiconductor systems, contact the ACSS team. We welcome thoughtful conversations with researchers, engineers, and technology communities.
Contact ACSS ↗