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Improved Spiking Neural Networks with multiple neurons for digit recognition

机译:改进了具有多个神经元的尖刺神经网络,用于数字识别

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For more than a decade Deep Learning, a subset of machine learning have been using for many applications such as forecasting, data visualization, classification etc. However, it consumes more energy and also takes longer training periods for computation, when compared to human brain. In most cases, it is difficult to reach human level performance. With the recent technological improvements in neuroscience and thanks to neuromorphic computing, we now can achieve higher classification efficacy for producing the desired outputs with considerably lower power consumption. Latest advancements in brain simulation technologies has given a breakthrough for analysing and modelling brain functions. Despite its advancements, this research remains undiscovered due to lack of coordination between neuroscientists, electronics engineers and computer scientists. Recent progress in Spiking Neural Networks(SNN) led towards integration different fields under one single roof. Biological neurons inside human brain communicate with each other through synapses. Similarly, bio-inspired synapses in the neuromorphic model mimic the biological neuro synapses for computing. In this novel research, we have modelled a supervised Spiking Neural Network algorithm using Leaky Integrate and Fire (LIF), Izhikevich and rectified linear neurons and tested its spike latency under different conditions. Furthermore, these SNN models are tested on the MNIST dataset to classify the handwritten digits, and the results are compared with the results of the Convolutional Neural Network (CNN).
机译:对于十多年的深度学习,机器学习的子集已经使用了许多应用,例如预测,数据可视化,分类等。然而,与人类大脑相比,它消耗更多的能量,并且还需要更长时间的训练期。在大多数情况下,很难达到人类水平的表现。随着神经科学的最近技术改善,并且由于神经形态计算,我们现在可以实现更高的分类功效,以产生具有相当较低的功耗的所需输出。脑仿真技术的最新进步对分析和建模脑功能进行了突破。尽管有进步,但由于神经科学家,电子工程师和计算机科学家缺乏协调,这项研究仍未发现。最近尖峰神经网络(SNN)的进展导致了一个单个屋檐下的集成不同领域。人脑内的生物神经元通过突触互相沟通。类似地,神经形态模型中的生物启发突触模拟了用于计算的生物神经突触。在这项新颖的研究中,我们使用泄漏整合和火(LiF),Izhikevich和整流的线性神经元建模了一种监督的尖峰神经网络算法,并在不同条件下测试其尖峰延迟。此外,这些SNN模型在MNIST数据集上测试以对手写的数字进行分类,并将结果与​​卷积神经网络(CNN)的结果进行比较。

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