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/*
*
* Copyright (C) 2001-2005 Ichiro Fujinaga, Michael Droettboom, Karl MacMillan
* 2009 Jonathan Koch
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License
* as published by the Free Software Foundation; either version 2
* of the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA.
*/
#ifndef kwm03112002_image_types
#define kwm03112002_image_types
#include "pixel.hpp"
#include "image_data.hpp"
#include "image_view.hpp"
#include "rle_data.hpp"
#include "connected_components.hpp"
#include <list>
/*
The standard image types.
*/
namespace Gamera {
/*
Image Data
*/
typedef ImageData<GreyScalePixel> GreyScaleImageData;
typedef ImageData<Grey16Pixel> Grey16ImageData;
typedef ImageData<FloatPixel> FloatImageData;
typedef ImageData<RGBPixel> RGBImageData;
typedef ImageData<ComplexPixel> ComplexImageData;
typedef ImageData<OneBitPixel> OneBitImageData;
typedef RleImageData<OneBitPixel> OneBitRleImageData;
/*
ImageView
*/
typedef ImageView<GreyScaleImageData> GreyScaleImageView;
typedef ImageView<Grey16ImageData> Grey16ImageView;
typedef ImageView<FloatImageData> FloatImageView;
typedef ImageView<RGBImageData> RGBImageView;
typedef ImageView<ComplexImageData> ComplexImageView;
typedef ImageView<OneBitImageData> OneBitImageView;
typedef ImageView<OneBitRleImageData> OneBitRleImageView;
/*
Connected-components
*/
typedef ConnectedComponent<OneBitImageData> Cc;
typedef ConnectedComponent<OneBitRleImageData> RleCc;
typedef std::list<Cc*> ConnectedComponents;
typedef std::list<RleCc*> RleConnectedComponents;
typedef MultiLabelCC<OneBitImageData> MlCc;
typedef std::list<MlCc*> MlCcs;
/*
Enumeration for all of the image types, pixel types, and storage
types.
*/
enum PixelTypes {
ONEBIT,
GREYSCALE,
GREY16,
RGB,
FLOAT,
COMPLEX
};
enum StorageTypes {
DENSE,
RLE
};
/*
To make the wrapping code a little easier these are all of the
combinations of pixel and storage types. The order is so that
the non-compressed views correspond to the PixelTypes.
*/
enum ImageCombinations {
ONEBITIMAGEVIEW,
GREYSCALEIMAGEVIEW,
GREY16IMAGEVIEW,
RGBIMAGEVIEW,
FLOATIMAGEVIEW,
COMPLEXIMAGEVIEW,
ONEBITRLEIMAGEVIEW,
CC,
RLECC,
MLCC
};
enum ClassificationStates {
UNCLASSIFIED,
AUTOMATIC,
HEURISTIC,
MANUAL
};
enum ConfidenceTypes {
CONFIDENCE_DEFAULT,
CONFIDENCE_KNNFRACTION,
CONFIDENCE_INVERSEWEIGHT,
CONFIDENCE_LINEARWEIGHT,
CONFIDENCE_NUN,
CONFIDENCE_NNDISTANCE,
CONFIDENCE_AVGDISTANCE
};
/*
Factory for types based on an existing image. This makes it easier
to make a new view from an existing type without worrying whether
it is a Cc, etc.
*/
template<class T>
struct ImageFactory {
// data types
typedef typename T::data_type data_type;
typedef ImageData<typename T::value_type> dense_data_type;
typedef RleImageData<typename T::value_type> rle_data_type;
// view types
typedef ImageView<data_type> view_type;
typedef ImageView<dense_data_type> dense_view_type;
typedef ImageView<rle_data_type> rle_view_type;
// cc types
typedef ConnectedComponent<data_type> cc_type;
typedef ConnectedComponent<dense_data_type> dense_cc_type;
typedef ConnectedComponent<rle_data_type> rle_cc_type;
typedef std::list<cc_type*> ccs_type;
typedef std::list<dense_cc_type*> dense_ccs_type;
typedef std::list<rle_cc_type*> rle_ccs_type;
// methods for creating new images and views
static view_type* new_view(const T& view) {
view_type* nview = new view_type(*((data_type*)view.data()),
view.origin(),
view.dim());
return nview;
}
static view_type* new_view(const T& view, const Point& origin, const Dim& dim) {
view_type* nview = new view_type(*((data_type*)view.data()),
origin, dim);
return nview;
}
static view_type* new_image(const T& view) {
data_type* data = new data_type(view.nrows(), view.ncols(),
view.offset_y(), view.offset_x());
view_type* nview = new view_type(*data,
view.offset_y(), view.offset_x(),
view.nrows(), view.ncols());
return nview;
}
};
template<>
struct ImageFactory<RGBImageView> {
// data types
typedef RGBImageView::data_type data_type;
typedef ImageData<RGBImageView::value_type> dense_data_type;
typedef ImageData<RGBImageView::value_type> rle_data_type;
// view types
typedef ImageView<data_type> view_type;
typedef ImageView<dense_data_type> dense_view_type;
typedef ImageView<rle_data_type> rle_view_type;
// cc types
typedef ConnectedComponent<data_type> cc_type;
typedef ConnectedComponent<dense_data_type> dense_cc_type;
typedef ConnectedComponent<rle_data_type> rle_cc_type;
typedef std::list<cc_type*> ccs_type;
typedef std::list<dense_cc_type*> dense_ccs_type;
typedef std::list<rle_cc_type*> rle_ccs_type;
static view_type* new_view(const RGBImageView& view) {
view_type* nview = new view_type(*((data_type*)view.data()),
view.origin(), view.dim());
return nview;
}
static view_type* new_view(const RGBImageView& view, const Point& origin,
const Dim& dim) {
view_type* nview = new view_type(*((data_type*)view.data()),
origin, dim);
return nview;
}
static view_type* new_image(const RGBImageView& view) {
data_type* data = new data_type(view.dim(), view.origin());
view_type* nview = new view_type(*data, view.origin(), view.dim());
return nview;
}
};
template<>
struct ImageFactory<ComplexImageView> {
// data types
typedef ComplexImageView::data_type data_type;
typedef ImageData<ComplexImageView::value_type> dense_data_type;
typedef ImageData<ComplexImageView::value_type> rle_data_type;
// view types
typedef ImageView<data_type> view_type;
typedef ImageView<dense_data_type> dense_view_type;
typedef ImageView<rle_data_type> rle_view_type;
// cc types
typedef ConnectedComponent<data_type> cc_type;
typedef ConnectedComponent<dense_data_type> dense_cc_type;
typedef ConnectedComponent<rle_data_type> rle_cc_type;
typedef std::list<cc_type*> ccs_type;
typedef std::list<dense_cc_type*> dense_ccs_type;
typedef std::list<rle_cc_type*> rle_ccs_type;
static view_type* new_view(const ComplexImageView& view) {
view_type* nview = new view_type(*((data_type*)view.data()),
view.origin(), view.dim());
return nview;
}
static view_type* new_view(const ComplexImageView& view, const Point& origin, const Dim& dim) {
view_type* nview = new view_type(*((data_type*)view.data()),
origin, dim);
return nview;
}
static view_type* new_image(const ComplexImageView& view) {
data_type* data = new data_type(view.dim(), view.origin());
view_type* nview = new view_type(*data, view.origin(), view.dim());
return nview;
}
};
/*
TypeIdImageFactory
This factory type can be used to easily create new images using the
enums above.
*/
template<int Pixel, int Storage>
struct TypeIdImageFactory {
};
template<>
struct TypeIdImageFactory<ONEBIT, DENSE> {
typedef OneBitImageData data_type;
typedef OneBitImageView image_type;
static image_type* create(const Point& origin, const Dim& dim) {
data_type* data = new data_type(dim, origin);
return new image_type(*data, origin, dim);
}
};
template<>
struct TypeIdImageFactory<ONEBIT, RLE> {
typedef OneBitRleImageData data_type;
typedef OneBitRleImageView image_type;
static image_type* create(const Point& origin, const Dim& dim) {
data_type* data = new data_type(dim, origin);
return new image_type(*data, origin, dim);
}
};
template<>
struct TypeIdImageFactory<GREYSCALE, DENSE> {
typedef GreyScaleImageData data_type;
typedef GreyScaleImageView image_type;
static image_type* create(const Point& origin, const Dim& dim) {
data_type* data = new data_type(dim, origin);
return new image_type(*data, origin, dim);
}
};
template<>
struct TypeIdImageFactory<GREY16, DENSE> {
typedef Grey16ImageData data_type;
typedef Grey16ImageView image_type;
static image_type* create(const Point& origin, const Dim& dim) {
data_type* data = new data_type(dim, origin);
return new image_type(*data, origin, dim);
}
};
template<>
struct TypeIdImageFactory<RGB, DENSE> {
typedef RGBImageData data_type;
typedef RGBImageView image_type;
static image_type* create(const Point& origin, const Dim& dim) {
data_type* data = new data_type(dim, origin);
return new image_type(*data, origin, dim);
}
};
template<>
struct TypeIdImageFactory<COMPLEX, DENSE> {
typedef ComplexImageData data_type;
typedef ComplexImageView image_type;
static image_type* create(const Point& origin, const Dim& dim) {
data_type* data = new data_type(dim, origin);
return new image_type(*data, origin, dim);
}
};
template<>
struct TypeIdImageFactory<FLOAT, DENSE> {
typedef FloatImageData data_type;
typedef FloatImageView image_type;
static image_type* create(const Point& origin, const Dim& dim) {
data_type* data = new data_type(dim, origin);
return new image_type(*data, origin, dim);
}
};
}
#endif
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