#ifndef AFFINE_OP_H #define AFFINE_OP_H #include "iclBaseAffineOp.h" #include namespace icl{ /// Class to apply an arbitrary series of affine transformations \ingroup AFFINE \ingroup UNARY /** every affine operation modifies an internal matrix, with the apply function, the matrix will be multiplicated to the image, so that the desired affine operations are executed on the image. */ class AffineOp : public BaseAffineOp, public Uncopyable { public: /// Constructor AffineOp (scalemode eInterpolate=interpolateLIN); /// resets the internal Matrix /** to 1 0 0 0 1 0 0 0 */ void reset (); /// adds a rotation /** @param dAngle angle in degrees (clockwise) */ void rotate (double dAngle); ///adds a traslation /** @param x pixels to translate in x-direction @param y pixels to translate in y-direction */ void translate (double x, double y) { m_aadT[0][2] += x; m_aadT[1][2] += y; } /// adds a scale /** @param x scale-factor in x-direction @param y scale-factor in y-direction different values for x and y will lead to a dilation / upsetting deformation */ void scale (double x, double y) { m_aadT[0][0] *= x; m_aadT[1][0] *= x; m_aadT[0][1] *= y; m_aadT[1][1] *= y; } /// Applies the affine transform to the image virtual void apply (const ImgBase *poSrc, ImgBase **ppoDst); private: /// array of class methods used to transform depth8u and depth32f images void (AffineOp::*m_aMethods[depthLast+1])(const ImgBase *poSrc, ImgBase *poDst); template void affine (const ImgBase *poSrc, ImgBase *poDst); void applyT (const double p[2], double aResult[2]); static void useMinMax (const double aCur[2], double aMin[2], double aMax[2]); void getShiftAndSize (const Rect& roi, Size& size, double& xShift, double& yShift); private: double m_aadT[2][3]; // double m_dxShift, m_dyShift; scalemode m_eInterpolate; }; } #endif