Automated methods for computing derivatives of cost functions are essential to many modern applications of machine learning. Reverse-mode automatic differentiation provides relatively cheap means for it but generated code often requires a lot of memory and is hardly amenable to later optimizations. Symbolic differentiation, on the other hand, generates much more flexible code, yet applying it to multidimensional tensors is a poorly studied topic. In this paper presents a method for symbolic tensor differentiation based on extended Einstein indexing notation, which allows to overcome many limitation of both - automatic and classic symbolic differentiation, and generate efficient code for CPL and GPU
Efficient computations with symmetric and non-symmetric tensors with support for automatic different...
Efficient computations with symmetric and non-symmetric tensors with support for automatic different...
Tensor representation is helpful to reduce the small sample size problem in discriminative subspace ...
Computing derivatives of tensor expressions, also known as tensor calculus, is a fundamental task in...
The majority of physical phenomena and their computational simulations are described mathematically ...
Efficient computations with symmetric and non-symmetric tensors with support for automatic different...
AbstractOne of the most common data structures, at least in scientific computing, is the multidimens...
Tensors are higher-dimensional analogs of matrices, and represent a key data abstraction for many ap...
International audienceMany numerical algorithms are naturally expressed as operations on tensors (i....
Functions with densely interconnected expression graphs, which arise in computer graphics applicatio...
Differentiable programming is a fresh programming paradigm which composes parameterized algorithmic ...
Tensor analysis is a prerequisite for many tasks in engineering and physics. By focusing on algorith...
In this paper, we explain what are tensors and how tensors can help in computing
Tensors (also known as mutidimensional arrays or N-way arrays) are used in a variety of applications...
This paper analyses the mechanism of tensor projection transformation in depth and introduces a high...
Efficient computations with symmetric and non-symmetric tensors with support for automatic different...
Efficient computations with symmetric and non-symmetric tensors with support for automatic different...
Tensor representation is helpful to reduce the small sample size problem in discriminative subspace ...
Computing derivatives of tensor expressions, also known as tensor calculus, is a fundamental task in...
The majority of physical phenomena and their computational simulations are described mathematically ...
Efficient computations with symmetric and non-symmetric tensors with support for automatic different...
AbstractOne of the most common data structures, at least in scientific computing, is the multidimens...
Tensors are higher-dimensional analogs of matrices, and represent a key data abstraction for many ap...
International audienceMany numerical algorithms are naturally expressed as operations on tensors (i....
Functions with densely interconnected expression graphs, which arise in computer graphics applicatio...
Differentiable programming is a fresh programming paradigm which composes parameterized algorithmic ...
Tensor analysis is a prerequisite for many tasks in engineering and physics. By focusing on algorith...
In this paper, we explain what are tensors and how tensors can help in computing
Tensors (also known as mutidimensional arrays or N-way arrays) are used in a variety of applications...
This paper analyses the mechanism of tensor projection transformation in depth and introduces a high...
Efficient computations with symmetric and non-symmetric tensors with support for automatic different...
Efficient computations with symmetric and non-symmetric tensors with support for automatic different...
Tensor representation is helpful to reduce the small sample size problem in discriminative subspace ...