An equivariant space with an equivariant cellular decomposition. User must inherit from this class to use it. They must also construct cells, and specialize the functions boundary and estimate_nonzero_entries.
More...
#include <Space.hpp>
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const auto & | getChains () |
| Returns const reference to the equivariant cellular chain complex of the space. More...
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const auto & | getCoChains () |
| Returns const reference to the equivariant cellular cochain complex of the space. More...
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auto | ROHomology (int level, const std::vector< int > &homologysphere) |
| Returns \(H_{*+V}^{C_{2^n}}(X)\) where \(l\)=level and \(V\)=homologysphere are provided. More...
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auto | ROHomology (const std::vector< int > &homologysphere) |
| Returns \(H_{*+V}(X)\) where \(V\)=homologysphere is provided. More...
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auto | ROCohomology (int level, const std::vector< int > &cohomologysphere) |
| Returns \(H^{*+V}_{C_{2^n}}(X)\) where \(n\)=level and \(V\)=cohomologysphere are provided. More...
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auto | ROCohomology (const std::vector< int > &cohomologysphere) |
| Returns \(H^{*+V}(X)\) where \(V\)=cohomologysphere is provided. More...
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auto | boundary (int dimension_domain, int cell) |
| The boundary map of a cell. Must be overriden in any child class! More...
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long | estimate_nonzero_entries (int dimension_domain) |
| An estimate of the nonzero entries of the differential matrix at the given dimension. Must be overriden in any child class! More...
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std::vector< rank_t > | cells |
| The equivariant cells in each dimension. Needs to be constructed in any child class! More...
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template<typename space_t, typename group_t>
class Mackey::Space< space_t, group_t >
An equivariant space with an equivariant cellular decomposition. User must inherit from this class to use it. They must also construct cells, and specialize the functions boundary and estimate_nonzero_entries.
◆ getChains()
const auto& getChains |
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Returns const reference to the equivariant cellular chain complex of the space.
◆ getCoChains()
const auto& getCoChains |
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Returns const reference to the equivariant cellular cochain complex of the space.
◆ ROHomology() [1/2]
auto ROHomology |
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int |
level, |
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const std::vector< int > & |
homologysphere |
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Returns \(H_{*+V}^{C_{2^n}}(X)\) where \(l\)=level and \(V\)=homologysphere are provided.
◆ ROHomology() [2/2]
auto ROHomology |
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const std::vector< int > & |
homologysphere | ) |
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Returns \(H_{*+V}(X)\) where \(V\)=homologysphere is provided.
◆ ROCohomology() [1/2]
auto ROCohomology |
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int |
level, |
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const std::vector< int > & |
cohomologysphere |
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Returns \(H^{*+V}_{C_{2^n}}(X)\) where \(n\)=level and \(V\)=cohomologysphere are provided.
◆ ROCohomology() [2/2]
auto ROCohomology |
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const std::vector< int > & |
cohomologysphere | ) |
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Returns \(H^{*+V}(X)\) where \(V\)=cohomologysphere is provided.
◆ boundary()
auto boundary |
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int |
dimension_domain, |
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int |
cell |
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protected |
The boundary map of a cell. Must be overriden in any child class!
The boundary of the j-th i-dimensional cell is the linear combination of i-1-dimensional cells.
- Parameters
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dimension_domain | The dimension of the domain cell |
cell | The index of the domain cell in the equivariant decomposition. |
- Returns
- Up to the specialization: It must be a class with a const iterator returning a cell_coefficient_pair (eg a vector of cell_coefficient pair)
◆ estimate_nonzero_entries()
long estimate_nonzero_entries |
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int |
dimension_domain | ) |
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An estimate of the nonzero entries of the differential matrix at the given dimension. Must be overriden in any child class!
If no estimate is desired, just return -1 in any child class
◆ cells
std::vector<rank_t> cells |
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protected |
The equivariant cells in each dimension. Needs to be constructed in any child class!
Eg for \(G=C_4\), cell[1]= [2,4,1] means that the 1-dimensional cells form: \((C_4/C_2 \coprod C_4/e \coprod C_4/C_4)_+\wedge S^1\)
The documentation for this class was generated from the following file: