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High-Throughput Low Power Area Efficient 17-bit 2's Complement Multilayer Perceptron Components and Architecture for on-Chip Machine Learning in Implantable Devices

Authors

ROMAINE, JAMES BRIAN, PEREIRA MARTÍN, MARIO

External publication

No

Means

IEEE Access

Scope

Article

Nature

Científica

JCR Quartile

SJR Quartile

JCR Impact

3.9

SJR Impact

0.926

Publication date

31/08/2022

ISI

000873916300001

Scopus Id

2-s2.0-85137605457

Abstract

In this manuscript the authors, design new hardware efficient combinational building blocks for a Multi Layer Perceptron (MLP) unit which eliminates the need for hardware generic Digital Signal Processing (DSP) units and also eliminates the need for on-chip block RAMs (BRAMs). The components were designed to minimise power and area consumption without sacrificing throughput. All designs were validated in a Field Programmable Gate Array (FPGA) and compared against unrestricted CPU-MATLAB implementations. Furthermore, a (2,2,2,2) MLP with back propagation was implemented and tested in a FPGA showing a total hardware utilisation of just 3782 LUTs, and no DSP or BRAMs. The MLP was also built in a Application Specific Integrated Circuit (ASIC) using a 130 nm technology by Skywater 130A. The results show that the area occupation was just 0.12~mm^{2} and consumed just 100 mW at 100 MHz input stimulus. © 2013 IEEE.

Keywords

Application specific integrated circuits; Backpropagation; Deep neural networks; Digital signal processing; Field programmable gate arrays (FPGA); Implants (surgical); Integrated circuit design; Logic gates; MATLAB; Throughput; Timing circuits; Area optimization; Deep learning; Field programmable gate array; Field programmables; Low Power; Low power electroincs; Neural-networks; Power demands; Programmable gate array; Systems-on-Chip; System-on-chip

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