This is the Tiny Vector Matrix Expression Templates library found at http://tvmet.sourceforge.net. It is the fastest and most compact matrix lib out there (for < 10x10 matricies). I have done some minor tweaks to make it compile for mbed. For examples and hints on how to use, see: http://tvmet.sourceforge.net/usage.html

Dependents:   Eurobot_2012_Secondary

Committer:
madcowswe
Date:
Wed Mar 28 15:53:45 2012 +0000
Revision:
0:feb4117d16d8

        

Who changed what in which revision?

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madcowswe 0:feb4117d16d8 1 /*
madcowswe 0:feb4117d16d8 2 * Tiny Vector Matrix Library
madcowswe 0:feb4117d16d8 3 * Dense Vector Matrix Libary of Tiny size using Expression Templates
madcowswe 0:feb4117d16d8 4 *
madcowswe 0:feb4117d16d8 5 * Copyright (C) 2001 - 2007 Olaf Petzold <opetzold@users.sourceforge.net>
madcowswe 0:feb4117d16d8 6 *
madcowswe 0:feb4117d16d8 7 * This library is free software; you can redistribute it and/or
madcowswe 0:feb4117d16d8 8 * modify it under the terms of the GNU lesser General Public
madcowswe 0:feb4117d16d8 9 * License as published by the Free Software Foundation; either
madcowswe 0:feb4117d16d8 10 * version 2.1 of the License, or (at your option) any later version.
madcowswe 0:feb4117d16d8 11 *
madcowswe 0:feb4117d16d8 12 * This library is distributed in the hope that it will be useful,
madcowswe 0:feb4117d16d8 13 * but WITHOUT ANY WARRANTY; without even the implied warranty of
madcowswe 0:feb4117d16d8 14 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
madcowswe 0:feb4117d16d8 15 * lesser General Public License for more details.
madcowswe 0:feb4117d16d8 16 *
madcowswe 0:feb4117d16d8 17 * You should have received a copy of the GNU lesser General Public
madcowswe 0:feb4117d16d8 18 * License along with this library; if not, write to the Free Software
madcowswe 0:feb4117d16d8 19 * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
madcowswe 0:feb4117d16d8 20 *
madcowswe 0:feb4117d16d8 21 * $Id: Matrix.h,v 1.58 2007-06-23 15:58:58 opetzold Exp $
madcowswe 0:feb4117d16d8 22 */
madcowswe 0:feb4117d16d8 23
madcowswe 0:feb4117d16d8 24 #ifndef TVMET_MATRIX_H
madcowswe 0:feb4117d16d8 25 #define TVMET_MATRIX_H
madcowswe 0:feb4117d16d8 26
madcowswe 0:feb4117d16d8 27 #include <iterator> // reverse_iterator
madcowswe 0:feb4117d16d8 28
madcowswe 0:feb4117d16d8 29 #include <tvmet/tvmet.h>
madcowswe 0:feb4117d16d8 30 #include <tvmet/TypePromotion.h>
madcowswe 0:feb4117d16d8 31 #include <tvmet/CommaInitializer.h>
madcowswe 0:feb4117d16d8 32 #include <tvmet/RunTimeError.h>
madcowswe 0:feb4117d16d8 33
madcowswe 0:feb4117d16d8 34 #include <tvmet/xpr/Matrix.h>
madcowswe 0:feb4117d16d8 35 #include <tvmet/xpr/MatrixRow.h>
madcowswe 0:feb4117d16d8 36 #include <tvmet/xpr/MatrixCol.h>
madcowswe 0:feb4117d16d8 37 #include <tvmet/xpr/MatrixDiag.h>
madcowswe 0:feb4117d16d8 38
madcowswe 0:feb4117d16d8 39 namespace tvmet {
madcowswe 0:feb4117d16d8 40
madcowswe 0:feb4117d16d8 41
madcowswe 0:feb4117d16d8 42 /* forwards */
madcowswe 0:feb4117d16d8 43 template<class T, std::size_t Rows, std::size_t Cols> class Matrix;
madcowswe 0:feb4117d16d8 44 template<class T,
madcowswe 0:feb4117d16d8 45 std::size_t RowsBgn, std::size_t RowsEnd,
madcowswe 0:feb4117d16d8 46 std::size_t ColsBgn, std::size_t ColsEnd,
madcowswe 0:feb4117d16d8 47 std::size_t RowStride, std::size_t ColStride /*=1*/>
madcowswe 0:feb4117d16d8 48 class MatrixSliceConstReference; // unused here; for me only
madcowswe 0:feb4117d16d8 49
madcowswe 0:feb4117d16d8 50
madcowswe 0:feb4117d16d8 51 /**
madcowswe 0:feb4117d16d8 52 * \class MatrixConstReference Matrix.h "tvmet/Matrix.h"
madcowswe 0:feb4117d16d8 53 * \brief value iterator for ET
madcowswe 0:feb4117d16d8 54 */
madcowswe 0:feb4117d16d8 55 template<class T, std::size_t NRows, std::size_t NCols>
madcowswe 0:feb4117d16d8 56 class MatrixConstReference
madcowswe 0:feb4117d16d8 57 : public TvmetBase < MatrixConstReference<T, NRows, NCols> >
madcowswe 0:feb4117d16d8 58 {
madcowswe 0:feb4117d16d8 59 public:
madcowswe 0:feb4117d16d8 60 typedef T value_type;
madcowswe 0:feb4117d16d8 61 typedef T* pointer;
madcowswe 0:feb4117d16d8 62 typedef const T* const_pointer;
madcowswe 0:feb4117d16d8 63
madcowswe 0:feb4117d16d8 64 /** Dimensions. */
madcowswe 0:feb4117d16d8 65 enum {
madcowswe 0:feb4117d16d8 66 Rows = NRows, /**< Number of rows. */
madcowswe 0:feb4117d16d8 67 Cols = NCols, /**< Number of cols. */
madcowswe 0:feb4117d16d8 68 Size = Rows * Cols /**< Complete Size of Matrix. */
madcowswe 0:feb4117d16d8 69 };
madcowswe 0:feb4117d16d8 70
madcowswe 0:feb4117d16d8 71 public:
madcowswe 0:feb4117d16d8 72 /** Complexity counter. */
madcowswe 0:feb4117d16d8 73 enum {
madcowswe 0:feb4117d16d8 74 ops = Rows * Cols
madcowswe 0:feb4117d16d8 75 };
madcowswe 0:feb4117d16d8 76
madcowswe 0:feb4117d16d8 77 private:
madcowswe 0:feb4117d16d8 78 MatrixConstReference();
madcowswe 0:feb4117d16d8 79 MatrixConstReference& operator=(const MatrixConstReference&);
madcowswe 0:feb4117d16d8 80
madcowswe 0:feb4117d16d8 81 public:
madcowswe 0:feb4117d16d8 82 /** Constructor. */
madcowswe 0:feb4117d16d8 83 explicit MatrixConstReference(const Matrix<T, Rows, Cols>& rhs)
madcowswe 0:feb4117d16d8 84 : m_data(rhs.data())
madcowswe 0:feb4117d16d8 85 { }
madcowswe 0:feb4117d16d8 86
madcowswe 0:feb4117d16d8 87 /** Constructor by a given memory pointer. */
madcowswe 0:feb4117d16d8 88 explicit MatrixConstReference(const_pointer data)
madcowswe 0:feb4117d16d8 89 : m_data(data)
madcowswe 0:feb4117d16d8 90 { }
madcowswe 0:feb4117d16d8 91
madcowswe 0:feb4117d16d8 92 public: // access operators
madcowswe 0:feb4117d16d8 93 /** access by index. */
madcowswe 0:feb4117d16d8 94 value_type operator()(std::size_t i, std::size_t j) const {
madcowswe 0:feb4117d16d8 95 TVMET_RT_CONDITION((i < Rows) && (j < Cols), "MatrixConstReference Bounce Violation")
madcowswe 0:feb4117d16d8 96 return m_data[i * Cols + j];
madcowswe 0:feb4117d16d8 97 }
madcowswe 0:feb4117d16d8 98
madcowswe 0:feb4117d16d8 99 public: // debugging Xpr parse tree
madcowswe 0:feb4117d16d8 100 void print_xpr(std::ostream& os, std::size_t l=0) const {
madcowswe 0:feb4117d16d8 101 os << IndentLevel(l)
madcowswe 0:feb4117d16d8 102 << "MatrixConstReference[O=" << ops << "]<"
madcowswe 0:feb4117d16d8 103 << "T=" << typeid(value_type).name() << ">,"
madcowswe 0:feb4117d16d8 104 << std::endl;
madcowswe 0:feb4117d16d8 105 }
madcowswe 0:feb4117d16d8 106
madcowswe 0:feb4117d16d8 107 private:
madcowswe 0:feb4117d16d8 108 const_pointer _tvmet_restrict m_data;
madcowswe 0:feb4117d16d8 109 };
madcowswe 0:feb4117d16d8 110
madcowswe 0:feb4117d16d8 111
madcowswe 0:feb4117d16d8 112 /**
madcowswe 0:feb4117d16d8 113 * \class Matrix Matrix.h "tvmet/Matrix.h"
madcowswe 0:feb4117d16d8 114 * \brief A tiny matrix class.
madcowswe 0:feb4117d16d8 115 *
madcowswe 0:feb4117d16d8 116 * The array syntax A[j][j] isn't supported here. The reason is that
madcowswe 0:feb4117d16d8 117 * operator[] always takes exactly one parameter, but operator() can
madcowswe 0:feb4117d16d8 118 * take any number of parameters (in the case of a rectangular matrix,
madcowswe 0:feb4117d16d8 119 * two paramters are needed). Therefore the cleanest way to do it is
madcowswe 0:feb4117d16d8 120 * with operator() rather than with operator[]. \see C++ FAQ Lite 13.8
madcowswe 0:feb4117d16d8 121 */
madcowswe 0:feb4117d16d8 122 template<class T, std::size_t NRows, std::size_t NCols>
madcowswe 0:feb4117d16d8 123 class Matrix
madcowswe 0:feb4117d16d8 124 {
madcowswe 0:feb4117d16d8 125 public:
madcowswe 0:feb4117d16d8 126 /** Data type of the tvmet::Matrix. */
madcowswe 0:feb4117d16d8 127 typedef T value_type;
madcowswe 0:feb4117d16d8 128
madcowswe 0:feb4117d16d8 129 /** Reference type of the tvmet::Matrix data elements. */
madcowswe 0:feb4117d16d8 130 typedef T& reference;
madcowswe 0:feb4117d16d8 131
madcowswe 0:feb4117d16d8 132 /** const reference type of the tvmet::Matrix data elements. */
madcowswe 0:feb4117d16d8 133 typedef const T& const_reference;
madcowswe 0:feb4117d16d8 134
madcowswe 0:feb4117d16d8 135 /** STL iterator interface. */
madcowswe 0:feb4117d16d8 136 typedef T* iterator;
madcowswe 0:feb4117d16d8 137
madcowswe 0:feb4117d16d8 138 /** STL const_iterator interface. */
madcowswe 0:feb4117d16d8 139 typedef const T* const_iterator;
madcowswe 0:feb4117d16d8 140
madcowswe 0:feb4117d16d8 141 /** STL reverse iterator interface. */
madcowswe 0:feb4117d16d8 142 typedef std::reverse_iterator<iterator> reverse_iterator;
madcowswe 0:feb4117d16d8 143
madcowswe 0:feb4117d16d8 144 /** STL const reverse iterator interface. */
madcowswe 0:feb4117d16d8 145 typedef std::reverse_iterator<const_iterator> const_reverse_iterator;
madcowswe 0:feb4117d16d8 146
madcowswe 0:feb4117d16d8 147 public:
madcowswe 0:feb4117d16d8 148 /** Dimensions. */
madcowswe 0:feb4117d16d8 149 enum {
madcowswe 0:feb4117d16d8 150 Rows = NRows, /**< Number of rows. */
madcowswe 0:feb4117d16d8 151 Cols = NCols, /**< Number of cols. */
madcowswe 0:feb4117d16d8 152 Size = Rows * Cols /**< Complete Size of Matrix. */
madcowswe 0:feb4117d16d8 153 };
madcowswe 0:feb4117d16d8 154
madcowswe 0:feb4117d16d8 155 public:
madcowswe 0:feb4117d16d8 156 /** Complexity counter. */
madcowswe 0:feb4117d16d8 157 enum {
madcowswe 0:feb4117d16d8 158 ops_assign = Rows * Cols,
madcowswe 0:feb4117d16d8 159 ops = ops_assign,
madcowswe 0:feb4117d16d8 160 use_meta = ops < TVMET_COMPLEXITY_M_ASSIGN_TRIGGER ? true : false
madcowswe 0:feb4117d16d8 161 };
madcowswe 0:feb4117d16d8 162
madcowswe 0:feb4117d16d8 163 public: // STL interface
madcowswe 0:feb4117d16d8 164 /** STL iterator interface. */
madcowswe 0:feb4117d16d8 165 iterator begin() { return m_data; }
madcowswe 0:feb4117d16d8 166
madcowswe 0:feb4117d16d8 167 /** STL iterator interface. */
madcowswe 0:feb4117d16d8 168 iterator end() { return m_data + Size; }
madcowswe 0:feb4117d16d8 169
madcowswe 0:feb4117d16d8 170 /** STL const_iterator interface. */
madcowswe 0:feb4117d16d8 171 const_iterator begin() const { return m_data; }
madcowswe 0:feb4117d16d8 172
madcowswe 0:feb4117d16d8 173 /** STL const_iterator interface. */
madcowswe 0:feb4117d16d8 174 const_iterator end() const { return m_data + Size; }
madcowswe 0:feb4117d16d8 175
madcowswe 0:feb4117d16d8 176 /** STL reverse iterator interface reverse begin. */
madcowswe 0:feb4117d16d8 177 reverse_iterator rbegin() { return reverse_iterator( end() ); }
madcowswe 0:feb4117d16d8 178
madcowswe 0:feb4117d16d8 179 /** STL const reverse iterator interface reverse begin. */
madcowswe 0:feb4117d16d8 180 const_reverse_iterator rbegin() const {
madcowswe 0:feb4117d16d8 181 return const_reverse_iterator( end() );
madcowswe 0:feb4117d16d8 182 }
madcowswe 0:feb4117d16d8 183
madcowswe 0:feb4117d16d8 184 /** STL reverse iterator interface reverse end. */
madcowswe 0:feb4117d16d8 185 reverse_iterator rend() { return reverse_iterator( begin() ); }
madcowswe 0:feb4117d16d8 186
madcowswe 0:feb4117d16d8 187 /** STL const reverse iterator interface reverse end. */
madcowswe 0:feb4117d16d8 188 const_reverse_iterator rend() const {
madcowswe 0:feb4117d16d8 189 return const_reverse_iterator( begin() );
madcowswe 0:feb4117d16d8 190 }
madcowswe 0:feb4117d16d8 191
madcowswe 0:feb4117d16d8 192 /** The size of the matrix. */
madcowswe 0:feb4117d16d8 193 static std::size_t size() { return Size; }
madcowswe 0:feb4117d16d8 194
madcowswe 0:feb4117d16d8 195 /** STL vector max_size() - returns allways rows()*cols(). */
madcowswe 0:feb4117d16d8 196 static std::size_t max_size() { return Size; }
madcowswe 0:feb4117d16d8 197
madcowswe 0:feb4117d16d8 198 /** STL vector empty() - returns allways false. */
madcowswe 0:feb4117d16d8 199 static bool empty() { return false; }
madcowswe 0:feb4117d16d8 200
madcowswe 0:feb4117d16d8 201 public:
madcowswe 0:feb4117d16d8 202 /** The number of rows of matrix. */
madcowswe 0:feb4117d16d8 203 static std::size_t rows() { return Rows; }
madcowswe 0:feb4117d16d8 204
madcowswe 0:feb4117d16d8 205 /** The number of columns of matrix. */
madcowswe 0:feb4117d16d8 206 static std::size_t cols() { return Cols; }
madcowswe 0:feb4117d16d8 207
madcowswe 0:feb4117d16d8 208 public:
madcowswe 0:feb4117d16d8 209 /** Default Destructor */
madcowswe 0:feb4117d16d8 210 ~Matrix() {
madcowswe 0:feb4117d16d8 211 #if defined(TVMET_DYNAMIC_MEMORY)
madcowswe 0:feb4117d16d8 212 delete [] m_data;
madcowswe 0:feb4117d16d8 213 #endif
madcowswe 0:feb4117d16d8 214 }
madcowswe 0:feb4117d16d8 215
madcowswe 0:feb4117d16d8 216 /** Default Constructor. The allocated memory region isn't cleared. If you want
madcowswe 0:feb4117d16d8 217 a clean use the constructor argument zero. */
madcowswe 0:feb4117d16d8 218 explicit Matrix()
madcowswe 0:feb4117d16d8 219 #if defined(TVMET_DYNAMIC_MEMORY)
madcowswe 0:feb4117d16d8 220 : m_data( new value_type[Size] )
madcowswe 0:feb4117d16d8 221 #endif
madcowswe 0:feb4117d16d8 222 { }
madcowswe 0:feb4117d16d8 223
madcowswe 0:feb4117d16d8 224 /** Copy Constructor, not explicit! */
madcowswe 0:feb4117d16d8 225 Matrix(const Matrix& rhs)
madcowswe 0:feb4117d16d8 226 #if defined(TVMET_DYNAMIC_MEMORY)
madcowswe 0:feb4117d16d8 227 : m_data( new value_type[Size] )
madcowswe 0:feb4117d16d8 228 #endif
madcowswe 0:feb4117d16d8 229 {
madcowswe 0:feb4117d16d8 230 *this = XprMatrix<ConstReference, Rows, Cols>(rhs.const_ref());
madcowswe 0:feb4117d16d8 231 }
madcowswe 0:feb4117d16d8 232
madcowswe 0:feb4117d16d8 233 /**
madcowswe 0:feb4117d16d8 234 * Constructor with STL iterator interface. The data will be copied into the matrix
madcowswe 0:feb4117d16d8 235 * self, there isn't any stored reference to the array pointer.
madcowswe 0:feb4117d16d8 236 */
madcowswe 0:feb4117d16d8 237 template<class InputIterator>
madcowswe 0:feb4117d16d8 238 explicit Matrix(InputIterator first, InputIterator last)
madcowswe 0:feb4117d16d8 239 #if defined(TVMET_DYNAMIC_MEMORY)
madcowswe 0:feb4117d16d8 240 : m_data( new value_type[Size] )
madcowswe 0:feb4117d16d8 241 #endif
madcowswe 0:feb4117d16d8 242 {
madcowswe 0:feb4117d16d8 243 TVMET_RT_CONDITION(static_cast<std::size_t>(std::distance(first, last)) <= Size,
madcowswe 0:feb4117d16d8 244 "InputIterator doesn't fits in size" )
madcowswe 0:feb4117d16d8 245 std::copy(first, last, m_data);
madcowswe 0:feb4117d16d8 246 }
madcowswe 0:feb4117d16d8 247
madcowswe 0:feb4117d16d8 248 /**
madcowswe 0:feb4117d16d8 249 * Constructor with STL iterator interface. The data will be copied into the matrix
madcowswe 0:feb4117d16d8 250 * self, there isn't any stored reference to the array pointer.
madcowswe 0:feb4117d16d8 251 */
madcowswe 0:feb4117d16d8 252 template<class InputIterator>
madcowswe 0:feb4117d16d8 253 explicit Matrix(InputIterator first, std::size_t sz)
madcowswe 0:feb4117d16d8 254 #if defined(TVMET_DYNAMIC_MEMORY)
madcowswe 0:feb4117d16d8 255 : m_data( new value_type[Size] )
madcowswe 0:feb4117d16d8 256 #endif
madcowswe 0:feb4117d16d8 257 {
madcowswe 0:feb4117d16d8 258 TVMET_RT_CONDITION(sz <= Size, "InputIterator doesn't fits in size" )
madcowswe 0:feb4117d16d8 259 std::copy(first, first + sz, m_data);
madcowswe 0:feb4117d16d8 260 }
madcowswe 0:feb4117d16d8 261
madcowswe 0:feb4117d16d8 262 /** Construct the matrix by value. */
madcowswe 0:feb4117d16d8 263 explicit Matrix(value_type rhs)
madcowswe 0:feb4117d16d8 264 #if defined(TVMET_DYNAMIC_MEMORY)
madcowswe 0:feb4117d16d8 265 : m_data( new value_type[Size] )
madcowswe 0:feb4117d16d8 266 #endif
madcowswe 0:feb4117d16d8 267 {
madcowswe 0:feb4117d16d8 268 typedef XprLiteral<value_type> expr_type;
madcowswe 0:feb4117d16d8 269 *this = XprMatrix<expr_type, Rows, Cols>(expr_type(rhs));
madcowswe 0:feb4117d16d8 270 }
madcowswe 0:feb4117d16d8 271
madcowswe 0:feb4117d16d8 272 /** Construct a matrix by expression. */
madcowswe 0:feb4117d16d8 273 template<class E>
madcowswe 0:feb4117d16d8 274 explicit Matrix(const XprMatrix<E, Rows, Cols>& e)
madcowswe 0:feb4117d16d8 275 #if defined(TVMET_DYNAMIC_MEMORY)
madcowswe 0:feb4117d16d8 276 : m_data( new value_type[Size] )
madcowswe 0:feb4117d16d8 277 #endif
madcowswe 0:feb4117d16d8 278 {
madcowswe 0:feb4117d16d8 279 *this = e;
madcowswe 0:feb4117d16d8 280 }
madcowswe 0:feb4117d16d8 281
madcowswe 0:feb4117d16d8 282 /** assign a value_type on array, this can be used for a single value
madcowswe 0:feb4117d16d8 283 or a comma separeted list of values. */
madcowswe 0:feb4117d16d8 284 CommaInitializer<Matrix, Size> operator=(value_type rhs) {
madcowswe 0:feb4117d16d8 285 return CommaInitializer<Matrix, Size>(*this, rhs);
madcowswe 0:feb4117d16d8 286 }
madcowswe 0:feb4117d16d8 287
madcowswe 0:feb4117d16d8 288 public: // access operators
madcowswe 0:feb4117d16d8 289 value_type* _tvmet_restrict data() { return m_data; }
madcowswe 0:feb4117d16d8 290 const value_type* _tvmet_restrict data() const { return m_data; }
madcowswe 0:feb4117d16d8 291
madcowswe 0:feb4117d16d8 292 public: // index access operators
madcowswe 0:feb4117d16d8 293 value_type& _tvmet_restrict operator()(std::size_t i, std::size_t j) {
madcowswe 0:feb4117d16d8 294 // Note: g++-2.95.3 does have problems on typedef reference
madcowswe 0:feb4117d16d8 295 TVMET_RT_CONDITION((i < Rows) && (j < Cols), "Matrix Bounce Violation")
madcowswe 0:feb4117d16d8 296 return m_data[i * Cols + j];
madcowswe 0:feb4117d16d8 297 }
madcowswe 0:feb4117d16d8 298
madcowswe 0:feb4117d16d8 299 value_type operator()(std::size_t i, std::size_t j) const {
madcowswe 0:feb4117d16d8 300 TVMET_RT_CONDITION((i < Rows) && (j < Cols), "Matrix Bounce Violation")
madcowswe 0:feb4117d16d8 301 return m_data[i * Cols + j];
madcowswe 0:feb4117d16d8 302 }
madcowswe 0:feb4117d16d8 303
madcowswe 0:feb4117d16d8 304 public: // ET interface
madcowswe 0:feb4117d16d8 305 typedef MatrixConstReference<T, Rows, Cols> ConstReference;
madcowswe 0:feb4117d16d8 306
madcowswe 0:feb4117d16d8 307 typedef MatrixSliceConstReference<
madcowswe 0:feb4117d16d8 308 T,
madcowswe 0:feb4117d16d8 309 0, Rows, 0, Cols,
madcowswe 0:feb4117d16d8 310 Rows, 1
madcowswe 0:feb4117d16d8 311 > SliceConstReference;
madcowswe 0:feb4117d16d8 312
madcowswe 0:feb4117d16d8 313 /** Return a const Reference of the internal data */
madcowswe 0:feb4117d16d8 314 ConstReference const_ref() const { return ConstReference(*this); }
madcowswe 0:feb4117d16d8 315
madcowswe 0:feb4117d16d8 316 /**
madcowswe 0:feb4117d16d8 317 * Return a sliced const Reference of the internal data.
madcowswe 0:feb4117d16d8 318 * \note Doesn't work since isn't implemented, but it is in
madcowswe 0:feb4117d16d8 319 * progress. Therefore this is a placeholder. */
madcowswe 0:feb4117d16d8 320 ConstReference const_sliceref() const { return SliceConstReference(*this); }
madcowswe 0:feb4117d16d8 321
madcowswe 0:feb4117d16d8 322 /** Return the vector as const expression. */
madcowswe 0:feb4117d16d8 323 XprMatrix<ConstReference, Rows, Cols> as_expr() const {
madcowswe 0:feb4117d16d8 324 return XprMatrix<ConstReference, Rows, Cols>(this->const_ref());
madcowswe 0:feb4117d16d8 325 }
madcowswe 0:feb4117d16d8 326
madcowswe 0:feb4117d16d8 327 private:
madcowswe 0:feb4117d16d8 328 /** Wrapper for meta assign. */
madcowswe 0:feb4117d16d8 329 template<class Dest, class Src, class Assign>
madcowswe 0:feb4117d16d8 330 static inline
madcowswe 0:feb4117d16d8 331 void do_assign(dispatch<true>, Dest& dest, const Src& src, const Assign& assign_fn) {
madcowswe 0:feb4117d16d8 332 meta::Matrix<Rows, Cols, 0, 0>::assign(dest, src, assign_fn);
madcowswe 0:feb4117d16d8 333 }
madcowswe 0:feb4117d16d8 334
madcowswe 0:feb4117d16d8 335 /** Wrapper for loop assign. */
madcowswe 0:feb4117d16d8 336 template<class Dest, class Src, class Assign>
madcowswe 0:feb4117d16d8 337 static inline
madcowswe 0:feb4117d16d8 338 void do_assign(dispatch<false>, Dest& dest, const Src& src, const Assign& assign_fn) {
madcowswe 0:feb4117d16d8 339 loop::Matrix<Rows, Cols>::assign(dest, src, assign_fn);
madcowswe 0:feb4117d16d8 340 }
madcowswe 0:feb4117d16d8 341
madcowswe 0:feb4117d16d8 342 private:
madcowswe 0:feb4117d16d8 343 /** assign this to a matrix of a different type T2 using
madcowswe 0:feb4117d16d8 344 the functional assign_fn. */
madcowswe 0:feb4117d16d8 345 template<class T2, class Assign>
madcowswe 0:feb4117d16d8 346 void assign_to(Matrix<T2, Rows, Cols>& dest, const Assign& assign_fn) const {
madcowswe 0:feb4117d16d8 347 do_assign(dispatch<use_meta>(), dest, *this, assign_fn);
madcowswe 0:feb4117d16d8 348 }
madcowswe 0:feb4117d16d8 349
madcowswe 0:feb4117d16d8 350 public: // assign operations
madcowswe 0:feb4117d16d8 351 /** assign a given matrix of a different type T2 element wise
madcowswe 0:feb4117d16d8 352 to this matrix. The operator=(const Matrix&) is compiler
madcowswe 0:feb4117d16d8 353 generated. */
madcowswe 0:feb4117d16d8 354 template<class T2>
madcowswe 0:feb4117d16d8 355 Matrix& operator=(const Matrix<T2, Rows, Cols>& rhs) {
madcowswe 0:feb4117d16d8 356 rhs.assign_to(*this, Fcnl_assign<value_type, T2>());
madcowswe 0:feb4117d16d8 357 return *this;
madcowswe 0:feb4117d16d8 358 }
madcowswe 0:feb4117d16d8 359
madcowswe 0:feb4117d16d8 360 /** assign a given XprMatrix element wise to this matrix. */
madcowswe 0:feb4117d16d8 361 template <class E>
madcowswe 0:feb4117d16d8 362 Matrix& operator=(const XprMatrix<E, Rows, Cols>& rhs) {
madcowswe 0:feb4117d16d8 363 rhs.assign_to(*this, Fcnl_assign<value_type, typename E::value_type>());
madcowswe 0:feb4117d16d8 364 return *this;
madcowswe 0:feb4117d16d8 365 }
madcowswe 0:feb4117d16d8 366
madcowswe 0:feb4117d16d8 367 private:
madcowswe 0:feb4117d16d8 368 template<class Obj, std::size_t LEN> friend class CommaInitializer;
madcowswe 0:feb4117d16d8 369
madcowswe 0:feb4117d16d8 370 /** This is a helper for assigning a comma separated initializer
madcowswe 0:feb4117d16d8 371 list. It's equal to Matrix& operator=(value_type) which does
madcowswe 0:feb4117d16d8 372 replace it. */
madcowswe 0:feb4117d16d8 373 Matrix& assign_value(value_type rhs) {
madcowswe 0:feb4117d16d8 374 typedef XprLiteral<value_type> expr_type;
madcowswe 0:feb4117d16d8 375 *this = XprMatrix<expr_type, Rows, Cols>(expr_type(rhs));
madcowswe 0:feb4117d16d8 376 return *this;
madcowswe 0:feb4117d16d8 377 }
madcowswe 0:feb4117d16d8 378
madcowswe 0:feb4117d16d8 379 public: // math operators with scalars
madcowswe 0:feb4117d16d8 380 // NOTE: this meaning is clear - element wise ops even if not in ns element_wise
madcowswe 0:feb4117d16d8 381 Matrix& operator+=(value_type) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 382 Matrix& operator-=(value_type) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 383 Matrix& operator*=(value_type) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 384 Matrix& operator/=(value_type) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 385
madcowswe 0:feb4117d16d8 386 Matrix& operator%=(std::size_t) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 387 Matrix& operator^=(std::size_t) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 388 Matrix& operator&=(std::size_t) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 389 Matrix& operator|=(std::size_t) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 390 Matrix& operator<<=(std::size_t) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 391 Matrix& operator>>=(std::size_t) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 392
madcowswe 0:feb4117d16d8 393 public: // math operators with matrizes
madcowswe 0:feb4117d16d8 394 // NOTE: access using the operators in ns element_wise, since that's what is does
madcowswe 0:feb4117d16d8 395 template <class T2> Matrix& M_add_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 396 template <class T2> Matrix& M_sub_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 397 template <class T2> Matrix& M_mul_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 398 template <class T2> Matrix& M_div_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 399 template <class T2> Matrix& M_mod_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 400 template <class T2> Matrix& M_xor_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 401 template <class T2> Matrix& M_and_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 402 template <class T2> Matrix& M_or_eq (const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 403 template <class T2> Matrix& M_shl_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 404 template <class T2> Matrix& M_shr_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 405
madcowswe 0:feb4117d16d8 406 public: // math operators with expressions
madcowswe 0:feb4117d16d8 407 // NOTE: access using the operators in ns element_wise, since that's what is does
madcowswe 0:feb4117d16d8 408 template <class E> Matrix& M_add_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 409 template <class E> Matrix& M_sub_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 410 template <class E> Matrix& M_mul_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 411 template <class E> Matrix& M_div_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 412 template <class E> Matrix& M_mod_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 413 template <class E> Matrix& M_xor_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 414 template <class E> Matrix& M_and_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 415 template <class E> Matrix& M_or_eq (const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 416 template <class E> Matrix& M_shl_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 417 template <class E> Matrix& M_shr_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 418
madcowswe 0:feb4117d16d8 419 public: // aliased math operators with expressions
madcowswe 0:feb4117d16d8 420 template <class T2> Matrix& alias_assign(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 421 template <class T2> Matrix& alias_add_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 422 template <class T2> Matrix& alias_sub_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 423 template <class T2> Matrix& alias_mul_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 424 template <class T2> Matrix& alias_div_eq(const Matrix<T2, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 425
madcowswe 0:feb4117d16d8 426 template <class E> Matrix& alias_assign(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 427 template <class E> Matrix& alias_add_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 428 template <class E> Matrix& alias_sub_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 429 template <class E> Matrix& alias_mul_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 430 template <class E> Matrix& alias_div_eq(const XprMatrix<E, Rows, Cols>&) TVMET_CXX_ALWAYS_INLINE;
madcowswe 0:feb4117d16d8 431
madcowswe 0:feb4117d16d8 432 public: // io
madcowswe 0:feb4117d16d8 433 /** Structure for info printing as Matrix<T, Rows, Cols>. */
madcowswe 0:feb4117d16d8 434 struct Info : public TvmetBase<Info> {
madcowswe 0:feb4117d16d8 435 std::ostream& print_xpr(std::ostream& os) const {
madcowswe 0:feb4117d16d8 436 os << "Matrix<T=" << typeid(value_type).name()
madcowswe 0:feb4117d16d8 437 << ", R=" << Rows << ", C=" << Cols << ">";
madcowswe 0:feb4117d16d8 438 return os;
madcowswe 0:feb4117d16d8 439 }
madcowswe 0:feb4117d16d8 440 };
madcowswe 0:feb4117d16d8 441
madcowswe 0:feb4117d16d8 442 /** Get an info object of this matrix. */
madcowswe 0:feb4117d16d8 443 static Info info() { return Info(); }
madcowswe 0:feb4117d16d8 444
madcowswe 0:feb4117d16d8 445 /** Member function for expression level printing. */
madcowswe 0:feb4117d16d8 446 std::ostream& print_xpr(std::ostream& os, std::size_t l=0) const;
madcowswe 0:feb4117d16d8 447
madcowswe 0:feb4117d16d8 448 /** Member function for printing internal data. */
madcowswe 0:feb4117d16d8 449 std::ostream& print_on(std::ostream& os) const;
madcowswe 0:feb4117d16d8 450
madcowswe 0:feb4117d16d8 451 private:
madcowswe 0:feb4117d16d8 452 /** The data of matrix self. */
madcowswe 0:feb4117d16d8 453 #if defined(TVMET_DYNAMIC_MEMORY)
madcowswe 0:feb4117d16d8 454 value_type* m_data;
madcowswe 0:feb4117d16d8 455 #else
madcowswe 0:feb4117d16d8 456 value_type m_data[Size];
madcowswe 0:feb4117d16d8 457 #endif
madcowswe 0:feb4117d16d8 458 };
madcowswe 0:feb4117d16d8 459
madcowswe 0:feb4117d16d8 460
madcowswe 0:feb4117d16d8 461 } // namespace tvmet
madcowswe 0:feb4117d16d8 462
madcowswe 0:feb4117d16d8 463 #include <tvmet/MatrixImpl.h>
madcowswe 0:feb4117d16d8 464 #include <tvmet/MatrixFunctions.h>
madcowswe 0:feb4117d16d8 465 #include <tvmet/MatrixBinaryFunctions.h>
madcowswe 0:feb4117d16d8 466 #include <tvmet/MatrixUnaryFunctions.h>
madcowswe 0:feb4117d16d8 467 #include <tvmet/MatrixOperators.h>
madcowswe 0:feb4117d16d8 468 #include <tvmet/MatrixEval.h>
madcowswe 0:feb4117d16d8 469 #include <tvmet/AliasProxy.h>
madcowswe 0:feb4117d16d8 470
madcowswe 0:feb4117d16d8 471 #endif // TVMET_MATRIX_H
madcowswe 0:feb4117d16d8 472
madcowswe 0:feb4117d16d8 473 // Local Variables:
madcowswe 0:feb4117d16d8 474 // mode:C++
madcowswe 0:feb4117d16d8 475 // tab-width:8
madcowswe 0:feb4117d16d8 476 // End: