DocumentCode
1983290
Title
High speed VLSI neural network for high-energy physics
Author
Masa, P. ; Hoen, K. ; Wallinga, H.
Author_Institution
MESA Res. Inst., Twente Univ., Enschede, Netherlands
fYear
1994
fDate
26-28 Sep 1994
Firstpage
422
Lastpage
428
Abstract
A CMOS neural network IC is discussed which was designed for very high speed applications. The parallel architecture, analog computing and digital weight storage provides unprecedented computing speed combined with ease of use. The circuit classifies up to 70 dimensional vectors within 20 nanoseconds, performing 20 billion (2*1010) multiply-and-add operations per second, and has as high as 28-42 Gbits/second equivalent input bandwidth with less than 1 W dissipation. The synaptic weights can be directly downloaded from a host computer to the on on-chip SRAM. The full-custom, analog-digital chip implements a fully connected feedforward neural network with 70 inputs, 6 hidden layer neurons and one output neuron. A unique solution, a single chip neural network photon trigger for high-energy physics research is provided
Keywords
CMOS integrated circuits; 1 W; 28 to 42 Gbit/s; CMOS neural network IC; VLSI neural network; analog computing; computing speed; digital weight storage; equivalent input bandwidth; full-custom analog-digital chip; fully connected feedforward neural network; hidden layer neurons; high-energy physics; multiply-and-add operations; parallel architecture; power dissipation; single chip neural network photon trigger; synaptic weights downloading; vector classification; very high speed applications; Analog computers; Application specific integrated circuits; CMOS integrated circuits; Concurrent computing; High speed integrated circuits; Neural networks; Neurons; Physics; Very high speed integrated circuits; Very large scale integration;
fLanguage
English
Publisher
ieee
Conference_Titel
Microelectronics for Neural Networks and Fuzzy Systems, 1994., Proceedings of the Fourth International Conference on
Conference_Location
Turin
Print_ISBN
0-8186-6710-9
Type
conf
DOI
10.1109/ICMNN.1994.593738
Filename
593738
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