The goal of artificial intelligence has been to model and replicate the processes of the human brain, with neuromorphic computing offering a new approach.
Unlike traditional artificial neural networks (ANNs) that rely on fixed structures and backpropagation, neuromorphic computing processes information through discrete spikes of activity, resembling biological neurons.
Neuromorphic chips, unlike traditional processors, store information within synaptic elements, enabling real-time adaptation without requiring external retraining.
The spike-based processing in spiking neural networks (SNNs) allows neurons to fire only when necessary, leading to more energy-efficient and responsive AI systems.
SNNs learn through synaptic plasticity, strengthening and weakening connections based on activity patterns, enabling real-time adaptation similar to biological brains without the need for retraining.
Neuromorphic chips can function autonomously, adjusting and recalling weights dynamically, providing efficient on-chip learning and continuous adaptation to new inputs.
The shift towards neuromorphic computing offers advantages like reduced power consumption, real-time adaptation, and improved efficiency in AI systems, especially for edge applications.
While challenges like hardware scalability and programming complexity exist, neuromorphic computing holds promise for advancing AI towards true autonomy and efficiency, similar to human cognition.
Various companies are developing neuromorphic solutions, leveraging spiking neural networks and event-driven processing for tasks like vision, speech recognition, and autonomous systems.
Neurobus specializes in providing neuromorphic computing solutions for space applications, enhancing situational awareness and autonomous services with low power consumption.
Existential AI focuses on developing neuromorphic-inspired AI solutions to enhance adaptability, efficient decision-making, and energy efficiency across industries, starting with healthcare applications.