Power Constrained Computing Systems for Next Generation IoT, HPC/HPT Architectures
A special issue of Journal of Low Power Electronics and Applications (ISSN 2079-9268).
Deadline for manuscript submissions: closed (31 July 2021) | Viewed by 4175
Special Issue Editors
Interests: large-scale hardware architectures for the exascale and exaflop operations; HW/SW codesign of high-performance systems, focusing on chip design; heterogeneous architectures (i.e., FPGA) for AI and modular design
Special Issues, Collections and Topics in MDPI journals
Interests: data security and privacy; blockchain; machine learning; cloud/fog computing; big data and high-performance/throughput computing
Special Issues, Collections and Topics in MDPI journals
Interests: cloud computing infrastructure; heterogeneous architecture; low power computing; FPGA
Interests: high-performance computing; cloud computing; quantum computing and applications; hardware accelerator design over FPGAs; evolutionary algorithms and their applications
Special Issues, Collections and Topics in MDPI journals
Special Issue Information
Dear Colleagues,
Next-generation computing systems (from IoT to Cloud to Exascale) are expected to embrace more sophisticated computing solutions to yield a leap in terms of performance. However, power consumption still represents the most limiting factor for chip designers. Indeed, with the end of Dennard scaling, innovative approaches must be realized to stack together ever more and more functions in a single chip. Overcoming these limitations leads to an ever-growing adoption of specialized computing systems, which provide a better tradeoff between performance per Watt ratio along with large flexibility. As such, in the last years, we have witnessed the enlargement of the specialized architecture landscape, which includes GPUs, FPGAs, APUs, and chips for AI models training and inference (Neural Network Processors, TPUs, etc.). Architectural specialization also demands flexible and productive programming and designing environments that can tune the underlying computing units, memory blocks, and interconnects to meet the desired level of performance and power consumption. Last but not least, progress in the manufacturing processes makes such a system more prone to faults. Thus, robustness and fault tolerance are key features that need to be addressed in the design phase without negatively affecting the performance or the power budget.
This Special Issue is focused on novel energy-aware heterogeneous computing systems. Novel architectures, algorithms, tools, and programming models to address the design of such power-constrained computing systems are welcome. Researchers, academics, and engineers are encouraged to submit original research contributions in all major areas of power-constrained computing for large-scale systems (HPC, Cloud, Edge, and IoT), which include, but are not limited to the following:
- Novel energy-efficient architectures and HW/SW co-design approaches for accelerating AI/ML applications.
- Designs for transprecision computing and approximated computing solutions (targeting from IoT to HPC)
- Innovative reconfigurable architectures (FPGAs, CGRA, overlay architectures) and applications
- Accelerator designs for specific domains and emerging applications (ad-hoc HPC simulations, annealers, data analytics, etc.) improving efficiency (FLOPS/Watt)
- Neuromorphic designs for HPC, AI/ML, and emerging applications
- Embedded systems with hard power constraints (e.g., designs for next-generation ultra-low-power IoT)
- Programming tools and models for improving efficiency (FLOPS/Watt) of accelerators (FPGAs, GPUs, Tensor Units, etc.)
- Tools supporting the design space exploration of future systems (IoT, Cloud, Exascale)
- Rapid prototyping of energy-efficient computing systems and accelerators
- New software stack optimizations adopted for energy-efficient hardware exploitation (CPUs, GPUs, FPGAs, etc.).
- Hardware designs with posit arithmetics vs IEEE floats
- Exotic computing approaches (including quantum computing, post-FPGAs, post-GPUs, analog computing)
- Fault-tolerant and resilient designs for power-constrained computing systems
- Tools supporting power consumption optimization (including AI/ML-based approaches)
- Reducing power consumption of interconnects in next-generation computing systems (novel NoC topologies, switches/routers NoC architectures, NoC traffic management, etc.)
Dr. Antoni Portero
Dr. Somnath Mazumdar
Dr. Olivier Terzo
Dr. Alberto Scionti
Guest Editors
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