About the program
Publications
Project Description
Project Goal: Develop a novel neuromorphic hardware platform utilizing combined photonic and electronic spiking neurons for ultra-low energy and high-speed artificial intelligence applications.
Challenges Addressed:
- Current AI models require increasingly high computational resources, leading to limitations in conventional digital hardware.
- Existing spiking neural networks (SNNs) based on electronics face limitations in speed and energy efficiency.
Proposed Solution:
SPIKEPro will create a first-of-its-kind integrated circuit (IC) platform combining:
- All-optical spiking neurons: Utilizing micron-sized lasers for ultrafast and energy-efficient spike generation.
- Electronic spiking neurons: Employing resonant-tunneling diode (RTD) devices for low-energy electrical spiking.
- Non-volatile synaptic weights: memristive devices offering fast switching and compatibility with the electronic-photonic integration platform.
Benefits:
- Ultra-low energy consumption: Targeting sub picojoule range for photonic and picojoule range for electronic spiking events.
- High-speed processing: Enabling operation at picosecond to nanosecond timescales.
- Multimodal data processing: Handling both electrical and optical input signals.
Potentiaal Applications:
- Energy-efficient AI systems for Internet-of-Things (IoT), smart buildings, and autonomous systems.
- High-performance computing with SNN co-processing alongside digital neuromorphic hardware.
Expected Impact:
- Transform AI systems into environmentally sustainable technologies.
- Advance neuromorphic hardware with significant societal and economic benefits.
Overall, SPIKEPro presents a groundbreaking approach to ultra-low energy and high-speed SNN hardware, paving the way for a new era of efficient and powerful AI systems
Dr. Weiming Yao
Project Coordinator:T U/e Department of Electrical Engineering Photonic Integration Research Group