Atsiliepimai
Aprašymas
Backpropagation from mathematical first principles to Python implementation and autonomous driving
Most deep learning texts rely leave practitioners dependent on framework abstractions that hide what's happening or equipped with theory but no working code. Deep Learning in the Visual Domain: Backpropagation in Theory, Code and Practice for Convolutional Networks and Visual Transformers, written by two experienced AI researchers, closes that gap by deriving the s of each layer and implementing it in Python from scratch - so readers see exactly how networks learn.
Coverage progresses from image filter fundamentals and neural network building blocks through convolutional networks and visual transformers, culminating in the design and implementation of autonomous driving models that navigate vehicles through a synthetic cityscape. Dedicated chapters derive the forward and backward passes for each layer type and pair them with corresponding Python code, making backpropagation itself - not just its effects - visible at every step.
Readers will also find:
Deep learning professionals, graduate students, and senior undergraduates studying neural networks will find this book uniquely suited to building architectures from first principles. By uniting mathematical exposition with transparent code and a working autonomous driving application, it delivers the depth required to design networks from the ground up.
Backpropagation from mathematical first principles to Python implementation and autonomous driving
Most deep learning texts rely leave practitioners dependent on framework abstractions that hide what's happening or equipped with theory but no working code. Deep Learning in the Visual Domain: Backpropagation in Theory, Code and Practice for Convolutional Networks and Visual Transformers, written by two experienced AI researchers, closes that gap by deriving the s of each layer and implementing it in Python from scratch - so readers see exactly how networks learn.
Coverage progresses from image filter fundamentals and neural network building blocks through convolutional networks and visual transformers, culminating in the design and implementation of autonomous driving models that navigate vehicles through a synthetic cityscape. Dedicated chapters derive the forward and backward passes for each layer type and pair them with corresponding Python code, making backpropagation itself - not just its effects - visible at every step.
Readers will also find:
Deep learning professionals, graduate students, and senior undergraduates studying neural networks will find this book uniquely suited to building architectures from first principles. By uniting mathematical exposition with transparent code and a working autonomous driving application, it delivers the depth required to design networks from the ground up.
Atsiliepimai