DocumentCode
123102
Title
Linearly separable pattern classification using memristive crossbar circuits
Author
Singh, Karam ; Sahu, Chitrakant ; Singh, Jaskirat
Author_Institution
Dept. of ECE, IIITDM Jabalpur, Jabalpur, India
fYear
2014
fDate
3-5 March 2014
Firstpage
323
Lastpage
329
Abstract
This paper presents a practical approach for the classification of linearly separable patterns using a single-layer perceptron network implemented with a memristive crossbar circuit (synaptic network) and a CMOS Op-Amps based neuron. Memristors (resistors with memory) promise the efficient implementation of synapses in artificial neural networks, as they bears astonishing resemblance to the biological synapses in its functionality, performance and integration capability. The proposed design of memristive perceptron is implemented in HSPICE and trained using the Matlab software by applying the perceptron learning rule. In order to analyze the performance of the proposed memristive crossbar circuit based perceptron design, a comparison is made with the existing MOS technology based synaptic network design. The simulation results thus obtained motivate the efficient implementation of sophisticated multi-layer neuromorphic systems with memristive crossbar circuits in the near future.
Keywords
CMOS analogue integrated circuits; SPICE; learning (artificial intelligence); mathematics computing; memristors; operational amplifiers; pattern classification; perceptrons; CMOS op-amps based neuron; HSPICE; MOS technology based synaptic network design; Matlab software; artificial neural networks; biological synapses; integration capability; linearly separable pattern classification; memristive crossbar circuits; multilayer neuromorphic systems; perceptron design; perceptron learning rule; performance capability; single-layer perceptron network; synaptic network; Biological neural networks; CMOS integrated circuits; Logic gates; Memristors; Neurons; Threshold voltage; Training; CMOS neuron; Memristor; combinational logic; learning rule; linearly separable dataset; neural network; perceptron; synaptic weight;
fLanguage
English
Publisher
ieee
Conference_Titel
Quality Electronic Design (ISQED), 2014 15th International Symposium on
Conference_Location
Santa Clara, CA
Print_ISBN
978-1-4799-3945-9
Type
conf
DOI
10.1109/ISQED.2014.6783343
Filename
6783343
Link To Document