Neuromorphic Artificial Intelligence Systems
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Abstract (arXiv)
Modern AI systems, based on von Neumann architecture and classical neural networks, have a number of fundamental limitations in comparison with the brain. This article discusses such limitations and the ways they can be mitigated. Next, it presents an overview of currently available neuromorphic AI projects in which these limitations are overcame by bringing some brain features into the functioning and organization of computing systems (TrueNorth, Loihi, Tianjic, SpiNNaker, BrainScaleS, NeuronFlow, DYNAP, Akida). Also, the article presents the principle of classifying neuromorphic AI systems by the brain features they use (neural networks, parallelism and asynchrony, impulse nature of information transfer, local learning, sparsity, analog and in-memory computing). In addition to new architectural approaches used in neuromorphic devices based on existing silicon microelectronics technologies, the article also discusses the prospects of using new memristor element base. Examples of recent advances in the use of memristors in euromorphic applications are also given.
Key facts. Cited by 12 papers in the map (data through 14 Oct 2026). First posted on arXiv 25 May 2022.
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Citing papers per year: 2024: 6; 2025: 4; 2026: 2.
12 papers.
- 2024PLEIADES: Building Temporal Kernels with Orthogonal Polynomialscited by 4
- 2024Neural Network Compression for Reinforcement Learning Taskscited by 3
- 2024Temporal-Difference Learning Using Distributed Error Signalscited by 3
- 2024Hybrid variable spiking graph neural networks for energy-efficient scientific machine learningcited by 3
- 2025Three-Factor Learning in Spiking Neural Networks: An Overview of Methods and Trends from a Machine Learning Perspectivecited by 3
- 2024Augmenting learning in neuro-embodied systems through neurobiological first principlescited by 2
- 2025Improving the adaptive and continuous learning capabilities of artificial neural networks: Lessons from multi-neuromodulatory dynamicscited by 2
- 2024A Theory of Synaptic Neural Balance: From Local to Global Ordercited by 0
- 2025Towards efficient keyword spotting using spike-based time difference encoderscited by 0
- 2025Spiffy: Efficient Implementation of CoLaNET for Raspberry Picited by 0
- 2026NeuroTrain: Surveying Local Learning Rules for Spiking Neural Networks with an Open Benchmarking Frameworkcited by 0
- 2026Hybrid ANN-SNN Pipeline with Local Plasticitycited by 0
- 2026Hybrid ANN-SNN Pipeline with Local Plasticity18 Jun 2026
- 2026NeuroTrain: Surveying Local Learning Rules for Spiking Neural Networks with an Open Benchmarking Framework14 May 2026
- 2025Spiffy: Efficient Implementation of CoLaNET for Raspberry Pi23 Jun 2025
- 2025Three-Factor Learning in Spiking Neural Networks: An Overview of Methods and Trends from a Machine Learning Perspective6 Apr 2025
- 2025Towards efficient keyword spotting using spike-based time difference encoders19 Mar 2025
- 2025Improving the adaptive and continuous learning capabilities of artificial neural networks: Lessons from multi-neuromodulatory dynamics12 Jan 2025
- 2024Hybrid variable spiking graph neural networks for energy-efficient scientific machine learning12 Dec 2024
- 2024Temporal-Difference Learning Using Distributed Error Signals6 Nov 2024
- 2024Augmenting learning in neuro-embodied systems through neurobiological first principles5 Jul 2024
- 2024PLEIADES: Building Temporal Kernels with Orthogonal Polynomials20 May 2024
- 2024A Theory of Synaptic Neural Balance: From Local to Global Order15 May 2024
- 2024Neural Network Compression for Reinforcement Learning Tasks13 May 2024