Fundamental Limits on the Computational Accuracy of Resistive Crossbar-based In-memory Architectures

Keyphrases

• Analog-to-digital Converter 50%
• Bitcell 50%
• CIFAR-10 50%
• Circuit Parameters 50%
• Clipping Noise 50%
• Computation Energy 50%
• Computational Accuracy 100%
• Crossbar 50%
• Digital-to-analog Converter 50%
• Dot Product Dimension 50%
• Energy Efficiency 50%
• Ferroelectric Field-effect Transistor (FeFET) 100%
• Fundamental Limits 100%
• In-memory Computing 50%
• Network Level 50%
• Noise Contribution 50%
• Processing-In-Memory Architectures 100%
• Quantization Noise 50%
• Resistive Crossbars 100%
• Resistive Random Access Memory (ReRAM) 50%
• Statistical Noise Model 50%
• Statistical Signal Model 50%

Computer Science

• Analog-to-Digital Converter 50%
• Computer Architecture 50%
• Digital-to-Analog Converter 50%
• Energy Efficiency 50%
• Fundamental Limit 100%
• Memory Architecture 100%
• Noise Contribution 50%
• Quantization Noise 50%

Engineering

• Analog-to-Digital Converter 33%
• Circuit Parameter 33%
• Clipping Noise 33%
• Digital-to-Analog Converter 33%
• Dot Product 33%
• Energy Efficiency 33%
• Fundamental Limit 100%
• Network Level 33%
• Noise Contribution 33%
• Quantization Noise 33%
• Resistive 100%