Dodatkowe przykłady dopasowywane są do haseł w zautomatyzowany sposób - nie gwarantujemy ich poprawności.
It has an alternative basis given by the identity matrix and the three Pauli matrices.
The Pauli matrices are some of the most important single-qubit operations.
But by irreducibility of the Pauli matrices, the representation cannot be further reduced.
They generalize in n dimensions as the Pauli matrices.
These matrix operators are identical to the Pauli matrices .
In the above expression are the generators of translation and are the Pauli matrices.
The most fundamental representation being the Pauli matrices.
The latter group is important for describing spin in quantum mechanics; see Pauli matrices.
The operators giving this maximal value are always isomorphic to the Pauli matrices.
The following relations echo those of the Pauli matrices:
For a single spin 1/2 particle, they can be defined as the eigenvectors of the Pauli matrices.
It is an abstract version of the algebra generated by the gamma or Pauli matrices.
The four basis vectors are the three Pauli matrices and a fourth antihermitian matrix.
The determinants and traces of the Pauli matrices are:
The Pauli matrices in the standard representation are:
Similarly, the two dimensional representation has a basis given by the Pauli matrices, which correspond to spin 1/2.
The Pauli matrices satisfy the above relation.
Note that the anticommutation relations for the Pauli matrices make the proof of the above defining property trivial.
Since the Pauli matrices do not commute, measurements of spin along the different axes are incompatible.
It is possible to form generalizations of the Pauli matrices in order to describe higher spin systems in three spatial dimensions.
For arbitrarily large j, the Pauli matrices can be calculated using the spin operator and ladder operators.
Orthonormal basis vectors share the algebra of the Pauli matrices, but are usually not equated with them.
Like the Pauli matrices, W is both Hermitian and unitary.
Quaternions form a division algebra-every non-zero element has an inverse-whereas Pauli matrices do not.
The Pauli matrices are a vector of three 2x2 matrices that are used as spin operators.