Hadamard transform is an example of a generalized class of Fourier transforms.
| FactSnippet No. 1,287,762 |
Hadamard transform is an example of a generalized class of Fourier transforms.
| FactSnippet No. 1,287,762 |
Hadamard transform can be regarded as being built out of size-2 discrete Fourier transforms, and is in fact equivalent to a multidimensional DFT of size.
| FactSnippet No. 1,287,763 |
Hadamard transform is in fact equivalent to a multidimensional DFT of size.
| FactSnippet No. 1,287,764 |
In quantum computing, the Hadamard transform gate is a one-qubit rotation, mapping the qubit-basis states and to two superposition states with equal weight of the computational basis states and.
| FactSnippet No. 1,287,765 |
However, if the Hadamard transform gate is applied twice in succession, then the final state is always the same as the initial state.
| FactSnippet No. 1,287,766 |
Computing the quantum Hadamard transform is simply the application of a Hadamard gate to each qubit individually because of the tensor product structure of the Hadamard transform.
| FactSnippet No. 1,287,767 |
Hadamard transform can be used to estimate phylogenetic trees from molecular data.
| FactSnippet No. 1,287,768 |
The invertible nature of the phylogenetic Hadamard transform allows the calculation of site likelihoods from a tree topology vector, allowing one to use the Hadamard transform for maximum likelihood estimation of phylogenetic trees.
| FactSnippet No. 1,287,769 |
However, the invertible nature of the phylogenetic Hadamard transform does provide an elegant tool for mathematic phylogenetics.
| FactSnippet No. 1,287,770 |
Hadamard transform is used in data encryption, as well as many signal processing and data compression algorithms, such as JPEG XR and MPEG-4 AVC.
| FactSnippet No. 1,287,771 |
The Hadamard transform is applied in experimental techniques such as NMR, mass spectrometry and crystallography.
| FactSnippet No. 1,287,772 |