CN113112604B - Grid point array model construction method and application of grid RGB color space - Google Patents
Grid point array model construction method and application of grid RGB color space Download PDFInfo
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Abstract
The invention relates to a grid point array model construction method of a grid RGB color space and application thereof, which realizes grid division of one-dimensional straight lines, two-dimensional planes and three-dimensional solids in the RGB color space by grid division of R, G, B axes, thereby constructing a grid array model of the RGB color space, and realizes digital expression of corresponding color spectrum by constructing grid point array matrixes and array color matrixes of points, lines, planes and bodies in the RGB color space. In practical application, the model and the algorithm can set meshing precision by themselves, and each group of model algorithm is called to realize visualization of meshing chromatograph, so that the color analysis and selection efficiency is effectively improved.
Description
Technical Field
The invention relates to a grid point array model construction method and application of a gridding RGB color space, and belongs to the technical field of color space grid construction.
Background
In the color design process, a mathematical model is required to be used for carrying out digital expression on RGB color space and carrying out visual display on the color spectrum. For example, the RGB color space can be connected in pairs between 8 vertices to obtain 12 edge lines, 12 face corner lines and 4 body corner lines, and the color distribution rule of the line segments needs to be expressed by using color values and visual colors thereof; the RGB color space also comprises 6 outer surfaces and a plurality of tangent planes which are respectively perpendicular to the C axis, the M axis and the G axis, and the color distribution rules on the planes need to be expressed by using color values and visual colors thereof. The color distribution of the points, lines and planes in the RGB color space is expressed by using color values and visual colors thereof, so that the digital design of the colors and the visualization of the color spectrum can be realized.
The RGB color space contains 10 6 In the color design process, the change rule of secondary colors mixed by two primary colors and the change rule of tertiary colors mixed by three primary colors and the visual color spectrum of the secondary colors are generally required to be mastered. Through the two-by-two connection among 8 vertexes in the RGB color space, 12 edge lines, 12 face corner lines and 4 body corner lines can be obtained, the color distribution on the connection lines can be obtained through secondary color chromatography of two primary colors, and an effective model is not yet used for carrying out digital expression and carrying out visual display on the color spectrum.
In the RGB color space, six outer surfaces and a plurality of tangent planes which are respectively perpendicular to the C axis, the M axis and the G axis, the color distribution rule on the planes can be obtained through three times of mixed color spectrum of three primary colors, and an effective model is also lacking to digitally express the color spectrum, so that the color spectrum is visually displayed.
Disclosure of Invention
The technical problem to be solved by the invention is to provide a grid point array model construction method of a grid RGB color space, which introduces a digital quantization process to realize the visualization of the colors of the RGB color space.
The invention adopts the following technical scheme for solving the technical problems: the invention designs a grid point array model construction method of a gridding RGB color space, which carries out grid division based on a regular hexahedron of the RGB color space and constructs a grid point array model of the RGB color space, and comprises the following steps:
step A, constructing a cube space corresponding to the RGB color space by using one vertex on the regular hexahedron to correspond to a black color value 0 and the other ends of three edges connected with the vertex to correspond to a red color value r, a green color value g and a blue color value B in the RGB color space respectively, and then entering the step B;
step B, aiming at the edge between the vertex corresponding to black and the vertex corresponding to red, performing m equal division to obtain m+1 points including the vertexes at two ends of the edge, and numbering 1, 2, … and m+1 for each grid point in sequence;
for the edge between the vertex corresponding to black and the vertex corresponding to green, performing n equal division to obtain n+1 points including the vertexes at two ends of the edge, and numbering each grid point as 1, 2, … and n+1 in sequence;
for the edge between the vertex corresponding to black and the vertex corresponding to blue, performing p equal division to obtain p+1 points including the vertexes at two ends of the edge, and numbering each grid point as 1, 2, … and p+1 in sequence; then enter step C;
step C, forming (m+1) (n+1) (p+1) grid points based on the division on three edges starting from black points according to a three-dimensional coordinate principle, setting grid point coordinates defined by grid point numbers as omega (i, j, k) as follows, and then entering step D;
ω(i,j,k)=[(i-1)/m,(j-1)/n,(k-1)/p];
i=1、2、…、m+1,j=1、2、…、n+1,k=1、2、…、p+1;
step D, the grid point array matrix of the RGB color space can be expressed as follows, and then the step E is carried out;
e, transforming coordinate values of each grid point in RGB color space to obtain color values of each grid pointStep F is then entered as follows;
step F, each grid color value of RGB color spaceThe color matrix of the grid point array, which is brought into the grid point array matrix, can obtain the RGB color space as follows:
as a preferred technical scheme of the invention: based on steps a to F, for any two points a and b in the cube space, the color value (r 1 ,g 1 ,b 1 ) Color value of point b (r 2 ,g 2 ,b 2 ) And dividing the L equal parts of the connecting line between the two points to construct a color value model of each point on the connecting line between the two points as follows:
where l=1, …, and l+1, L represents the number of each point in each position including the point a and the point b in the direction from the point a to the point b on the two-point line.
As a preferred technical scheme of the invention: based on the steps A to F, defining that the vertex corresponding to black in the cube space is a point K, the vertex corresponding to red is a point R, the vertex corresponding to green is a point G, and the vertex corresponding to blue is a point B, then the other vertex of the surface where the point K, the point R, the point G are located is a point Y corresponding to yellow, the other vertex of the surface where the point K, the point R, the point B are located is a point M corresponding to magenta, the other vertex of the surface where the point K, the point G, the point B are located is a point C corresponding to cyan, and the other vertex of the surface where the point Y, the point G, the point C are located is a point W corresponding to white;
then, starting from point K, the edgeThe color value model based on m-aliquotients and points thereon is as follows:
starting from point G, edgesThe color value model based on m-aliquotients and points thereon is as follows:
starting from point C, edgesThe color value model based on m-aliquotients and points thereon is as follows:
starting from point B, edgesThe color value model based on m-aliquotients and points thereon is as follows:
starting from point K, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
starting from point R, edgeThe color value model based on n-aliquotients for each point thereon is as follows:
starting from point M, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
starting from point B, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
starting from point K, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
starting from point R, edgeThe color value model based on p-aliquotients for each point thereon is as follows:
starting from point Y, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
starting from point G, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
as a preferred technical scheme of the invention: based on step A to step F, thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
as a preferred technical scheme of the invention: based on steps A to F, the body diagonalThe color value model based on the L-score and the points thereon is as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
as a preferred technical scheme of the invention: based on the steps A to F, defining that the vertex corresponding to black in the cube space is a point K, the vertex corresponding to red is a point R, the vertex corresponding to green is a point G, and the vertex corresponding to blue is a point B, then the other vertex of the surface where the point K, the point R, the point G are located is a point Y corresponding to yellow, the other vertex of the surface where the point K, the point R, the point B are located is a point M corresponding to magenta, the other vertex of the surface where the point K, the point G, the point B are located is a point C corresponding to cyan, and the other vertex of the surface where the point Y, the point G, the point C are located is a point W corresponding to white; according toM aliquotients, & gt>N equal,>p equal of (2), then based on i=1, …, m+1, and +.>The model matrix of the m+1 profile color values perpendicular to each other is as follows:
based on j=1, …, n+1, andthe model matrix of the vertical n+1 section color values is as follows:
based on k=1, …, p+1, andthe vertical p+1 profile color value model matrices are as follows:
as a preferred technical scheme of the invention: based on step A to step F, according toM aliquotients, & gt>N equal,>p equal of->The on-plane color value model is as follows:
the on-plane color value model is as follows:
the on-plane color value model is as follows:
the on-plane color value model is as follows:
the on-plane color value model is as follows:
the on-plane color value model is as follows:
correspondingly, the invention designs an application of a grid point array model construction method aiming at a gridding RGB color space, the RGB color space grid point array model is used for obtaining RGB color space grid point colors, and the RGB color space grid point colors are stored in a database and are used for analyzing target colors in the following manner;
firstly, detecting to obtain RGB color detection data corresponding to a target color, and searching grid points corresponding to the RGB color detection data in a database; then, a grid point corresponding to the target color is obtained in a comparison mode by taking the grid point as an origin and presetting a radius range around the grid point; and finally, forming RGB color data corresponding to the target color by the RGB color data corresponding to the grid points.
As a preferred technical scheme of the invention: and detecting the target color by adopting a color detector to obtain RGB color detection data corresponding to the target color.
Compared with the prior art, the grid point array model construction method and application of the grid RGB color space have the following technical effects:
the invention designs a grid point array model construction method and application of a gridding RGB color space, realizes the gridding of one-dimensional straight lines, two-dimensional planes and three-dimensional solids in the RGB color space by gridding and dividing a R, G, B axis, constructs the gridding array model of the RGB color space, and realizes the digital expression of corresponding chromatograph by constructing grid point array matrixes and array color matrixes of points, lines, planes and bodies in the RGB color space. In practical application, the model and the algorithm can set meshing precision by themselves, and each group of model algorithm is called to realize visualization of meshing chromatograph, so that the color analysis and selection efficiency is effectively improved.
Drawings
FIG. 1 is a flow chart of a method for constructing a grid point array model of a gridded RGB color space designed by the present invention;
FIG. 2 is a schematic diagram of a hexahedral structure corresponding to a method for constructing a latticed point array model of a latticed RGB color space designed in the present invention;
fig. 3 is a schematic diagram of hexahedral colors corresponding to the method for constructing a latticed point array model of the latticed RGB color space according to the present invention.
Detailed Description
The following describes the embodiments of the present invention in further detail with reference to the drawings.
The invention designs a grid point array model construction method of a gridding RGB color space, which is based on the regular hexahedron of the RGB color space to carry out grid division and construct the grid point array model, as shown in figure 1, and comprises the following steps A to F.
Step A, constructing a cube space corresponding to the RGB color space by using one vertex on the regular hexahedron to correspond to a black color value 0 and the other ends of three edges connected with the vertex to correspond to a red color value r, a green color value g and a blue color value B in the RGB color space respectively, and then entering the step B;
step B, aiming at the edge between the vertex corresponding to black and the vertex corresponding to red, performing m equal division to obtain m+1 points including the vertexes at two ends of the edge, and numbering 1, 2, … and m+1 for each grid point in sequence;
for the edge between the vertex corresponding to black and the vertex corresponding to green, performing n equal division to obtain n+1 points including the vertexes at two ends of the edge, and numbering each grid point as 1, 2, … and n+1 in sequence;
for the edge between the vertex corresponding to black and the vertex corresponding to blue, performing p equal division to obtain p+1 points including the vertexes at two ends of the edge, and numbering each grid point as 1, 2, … and p+1 in sequence; then enter step C;
step C, forming (m+1) (n+1) (p+1) grid points based on the division on three edges starting from black points according to a three-dimensional coordinate principle, setting grid point coordinates defined by grid point numbers as omega (i, j, k) as follows, and then entering step D;
ω(i,j,k)=[(i-1)/m,(j-1)/n,(k-1)/p];
i=1、2、…、m+1,j=1、2、…、n+1,k=1、2、…、p+1;
step D, the grid point array matrix of the RGB color space can be expressed as follows, and then the step E is carried out;
e, transforming coordinate values of each grid point in RGB color space to obtain color values of each grid pointStep F is then entered as follows;
step F, each grid color value of RGB color spaceThe color matrix of the grid point array, which is brought into the grid point array matrix, can obtain the RGB color space as follows:
in practical application, for any two points a and b in the square space, the color value (r 1 ,g 1 ,b 1 ) Color value of point b (r 2 ,g 2 ,b 2 ) And dividing the L equal parts of the connecting line between the two points to construct a color value model of each point on the connecting line between the two points as follows:
where l=1, …, and l+1, L represents the number of each point in each position including the point a and the point b in the direction from the point a to the point b on the two-point line.
In practical applications, defining a point K as a vertex corresponding to black, a point R as a vertex corresponding to red, a point G as a vertex corresponding to green, and a point B as a vertex corresponding to blue in the cube space, wherein the other vertex of the surface of the point K, the point R, and the point G is a point Y corresponding to yellow, the other vertex of the surface of the point K, the point R, and the point B is a point M corresponding to magenta, the other vertex of the surface of the point K, the point G, and the point B is a point C corresponding to cyan, and the other vertex of the surface of the point Y, the point G, and the point C is a point W corresponding to white, and the color values of the points are as follows:
then for 12 ribs on the RGB color space, as shown in fig. 2, the analysis is as follows:
then, starting from point K, the edgeThe color value model based on m-aliquotients and points thereon is as follows:
this was expanded, i.e., (m+1) ×1 dimension matrix as follows:
starting from point G, edgesBased on the color value of each point on the m equal divisionThe model is as follows:
this was expanded, i.e., (m+1) ×1 dimension matrix as follows:
starting from point C, edgesThe color value model based on m-aliquotients and points thereon is as follows:
this was expanded, i.e., (m+1) ×1 dimension matrix as follows:
starting from point B, edgesThe color value model based on m-aliquotients and points thereon is as follows:
this was expanded, i.e., (m+1) ×1 dimension matrix as follows:
starting from point K, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
this was expanded, i.e. the (n+1) ×1 dimension matrix was as follows:
starting from point R, edgeThe color value model based on n-aliquotients for each point thereon is as follows:
this was expanded, i.e. the (n+1) ×1 dimension matrix was as follows:
starting from point M, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
this was expanded, i.e. the (n+1) ×1 dimension matrix was as follows:
starting from point B, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
this was expanded, i.e. the (n+1) ×1 dimension matrix was as follows:
starting from point K, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
this was expanded, i.e., (p+1) ×1 dimension matrix as follows:
starting from point R, edgeThe color value model based on p-aliquotients for each point thereon is as follows:
this was expanded, i.e., (p+1) ×1 dimension matrix as follows:
starting from point Y, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
this was expanded, i.e., (p+1) ×1 dimension matrix as follows:
starting from point G, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
this was expanded, i.e., (p+1) ×1 dimension matrix as follows:
in practice, further to the diagonal of each face on the RGB color space, where,diagonal +.>The color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
diagonal lineColor value model based on L-aliquoting and each point on the model is as follows:
This was expanded, i.e., (L+1) ×1 dimension matrix as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
/>
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
diagonal lineColor value model based on L equal division and points on L equal divisionThe pattern is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
for each body diagonal on the RGB color space, respectivelyThe color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
this was expanded, i.e., (L+1) ×1 dimension matrix as follows:
/>
in practical application, as shown in fig. 2, based on steps a to F, defining a point K for a vertex corresponding to black, a point R for a vertex corresponding to red, a point G for a vertex corresponding to green, and a point B for a vertex corresponding to blue in the cube space, wherein another vertex of a plane where the point K, the point R, and the point G are located is a point Y corresponding to yellow, another vertex of a plane where the point K, the point R, and the point B are located is a point M corresponding to magenta, another vertex of a plane where the point K, the point G, and the point B are located is a point C corresponding to cyan, and another vertex of a plane where the point Y, the point G, and the point C are located is a point W corresponding to white; according toM aliquotients, & gt>N equal,>p equal of (2), then based on i=1, …, m+1, and +.>The model matrix of the m+1 profile color values perpendicular to each other is as follows:
based on j=1, …, n+1, andthe model matrix of the vertical n+1 section color values is as follows:
based on k=1, …, p+1, andthe vertical p+1 profile color value model matrices are as follows:
in practical application, the color value model based on any point in the cube space corresponding to the RGB color space is as follows:
in the RGB color space, the color is crossedOn the segmentIs>Do and->Perpendicular (m+1) planes, cross->Grid points on the segment->Do and->Vertical (n+1) planes, crossGrid points on the segment-> Do and->The vertical (p+1) planes, thereby gridding the regular hexahedron of the RGB color space along three dimensions, form (m+1) ×n+1) ×p+1 grid points. The coordinate values of the grid points are as follows:
(1) In the RGB color space, we can getEach point of the segment and the->Vertical m+1 sections:
when i=1, the matrix formed by each grid point on the cross section is:
when i=2, the matrix formed by each grid point on the cross section is:
when i=i, the matrix formed by each grid point on the cross section is:
when i=m+1, the matrix formed by each grid point on the cross section is: />
(2) In the RGB color space, we can getEach point of the segment and the->Vertical n+1 sections:
when j=1, the matrix formed by the grid points on the cross section is:
when j=2, the matrix formed by the grid points on the cross section is:
when j=j, the matrix formed by the grid points on the cross section is:
when j=n+1, the matrix formed by each grid point on the cross section is:
(3) In the RGB color space, we can getEach point of the segment and the->Vertical p+1 sections:
when k=1, the matrix formed by each grid point on the cross section is:
when k=2, the matrix formed by each grid point on the cross section is:
when k=k, the matrix formed by each grid point on the cross section is:
when k=p+1, each grid point on the cross sectionThe matrix is composed of:
in practical application, further as shown in FIG. 2, according toM aliquotients, & gt>N equal,>p equal of (2), thenThe on-plane color value model is as follows:
the (m+1) × (n+1) dimensional matrix is expanded as follows:
the on-plane color value model is as follows:
the (m+1) × (n+1) dimensional matrix is expanded as follows:
the on-plane color value model is as follows:
the (m+1) × (p+1) dimensional matrix is expanded as follows:
the on-plane color value model is as follows: />
The (m+1) × (p+1) dimensional matrix is expanded as follows:
the on-plane color value model is as follows:
it is expanded, i.e., (n+1) × (p+1) dimensional matrix as follows:
the on-plane color value model is as follows:
it is expanded, i.e., (n+1) × (p+1) dimensional matrix as follows:
correspondingly, the invention designs an application of a grid point array model construction method aiming at a gridding RGB color space, the RGB color space grid point array model is used for obtaining RGB color space grid point colors, and the RGB color space grid point colors are stored in a database and are used for analyzing target colors in the following manner;
firstly, detecting by a color detector to obtain RGB color detection data corresponding to a target color, and searching a grid point corresponding to the RGB color detection data in a database; then, a grid point corresponding to the target color is obtained in a comparison mode by taking the grid point as an origin and presetting a radius range around the grid point; and finally, forming RGB color data corresponding to the target color by the RGB color data corresponding to the grid points.
The grid point array model construction method based on the designed gridding RGB color space is shown in FIG. 3 in a specific practical application.
Based on n=10, a visualization of the regular hexahedral edge lines of the RGB color space is achieved, with specific data as shown in table 1 below.
TABLE 1
RGB values | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
KR | 0,0,0 | 26,0,0 | 51,0,0 | 77,0,0 | 102,0,0 | 128,0,0 | 153,0,0 | 179,0,0 | 204,0,0 | 230,0,0 | 255,0,0 |
KG | 0,0,0 | 0,26,0 | 0,51,0 | 0,77,0 | 0,102,0 | 0,128,0 | 0,153,0 | 0,179,0 | 0,204,0 | 0,230,0 | 0,255,0 |
KB | 0,0,0 | 0,0,26 | 0,0,51 | 0,0,77 | 0,0,102 | 0,0,128 | 0,0,153 | 0,0,179 | 0,0,204 | 0,0,230 | 0,0,255 |
RM | 255,0,0 | 255,0,26 | 255,0,51 | 255,0,77 | 255,0,102 | 255,0,128 | 255,0,153 | 255,0,179 | 255,0,204 | 255,0,230 | 255,0,255 |
RY | 255,0,0 | 255,26,0 | 255,51,0 | 255,77,0 | 255,102,0 | 255,128,0 | 255,153,0 | 255,179,0 | 255,204,0 | 255,230,0 | 255,255,0 |
GY | 0,255,0 | 26,255,0 | 51,255,0 | 77,255,0 | 102,255,0 | 128,255,0 | 153,255,0 | 179,255,0 | 204,255,0 | 230,255,0 | 255,255,0 |
GC | 0,255,0 | 0,255,26 | 0,255,51 | 0,255,77 | 0,255,102 | 0,255,128 | 0,255,153 | 0,255,179 | 0,255,204 | 0,255,230 | 0,255,255 |
BM | 0,0,255 | 26,0,255 | 51,0,255 | 77,0,255 | 102,0,255 | 128,0,255 | 153,0,255 | 179,0,255 | 204,0,255 | 230,0,255 | 255,0,255 |
BC | 0,0,255 | 0,26,255 | 0,51,255 | 0,77,255 | 0,102,255 | 0,128,255 | 0,153,255 | 0,179,255 | 0,204,255 | 0,230,255 | 0,255,255 |
BW | 0,255,255 | 26,255,255 | 51,255,255 | 77,255,255 | 102,255,255 | 128,255,255 | 153,255,255 | 179,255,255 | 204,255,255 | 230,255,255 | 255,255,255 |
MW | 255,0,255 | 255,26,255 | 255,51,255 | 255,77,255 | 255,102,255 | 255,128,255 | 255,153,255 | 255,179,255 | 255,204,255 | 255,230,255 | 255,255,255 |
YW | 255,255,0 | 255,255,26 | 255,255,51 | 255,255,77 | 255,255,102 | 255,255,128 | 255,255,153 | 255,255,179 | 255,255,204 | 255,255,230 | 255,255,255 |
Visualization of the RGB color space regular hexahedron facing corner lines as shown in table 2 below.
TABLE 2
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Visualization of the RGB color space regular hexahedron diagonal, as shown in table 3 below.
TABLE 3 Table 3
RGB values | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
KW | 0,0,0 | 26,26,26 | 51,51,51 | 77,77,77 | 102,102,102 | 128,128,128 | 153,153,153 | 179,179,179 | 204,204,204 | 230,230,230 | 255,255,255 |
RC | 255,0,0 | 230,26,26 | 204,51,51 | 179,77,77 | 153,102,102 | 128,128,128 | 102,153,153 | 77,179,179 | 51,204,204 | 26,230,230 | 0,255,255 |
GM | 0,255,0 | 26,230,26 | 51,204,51 | 77,179,77 | 102,153,102 | 128,128,128 | 153,102,153 | 179,77,179 | 204,51,204 | 230,26,230 | 255,0,255 |
BY | 0,0,255 | 26,26,230 | 51,51,204 | 77,77,179 | 102,102,153 | 128,128,128 | 153,153,102 | 179,179,77 | 204,204,51 | 230,230,26 | 255,255,0 |
(II) based on the visualization of the outer surface of the regular hexahedron of the RGB color space where m, n, p are equal to 10, as shown in Table 4 below.
TABLE 4 Table 4
KRYG | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,0 | 0,26,0 | 0,51,0 | 0,77,0 | 0,102,0 | 0,128,0 | 0,153,0 | 0,179,0 | 0,204,0 | 0,230,0 | 0,255,0 |
2 | 26,0,0 | 26,26,0 | 26,51,0 | 26,77,0 | 26,102,0 | 26,128,0 | 26,153,0 | 26,179,0 | 26,204,0 | 26,230,0 | 26,255,0 |
3 | 51,0,0 | 51,26,0 | 51,51,0 | 51,77,0 | 51,102,0 | 51,128,0 | 51,153,0 | 51,179,0 | 51,204,0 | 51,230,0 | 51,255,0 |
4 | 77,0,0 | 77,26,0 | 77,51,0 | 77,77,0 | 77,102,0 | 77,128,0 | 77,153,0 | 77,179,0 | 77,204,0 | 77,230,0 | 77,255,0 |
5 | 102,0,0 | 102,26,0 | 102,51,0 | 102,77,0 | 102,102,0 | 102,128,0 | 102,153,0 | 102,179,0 | 102,204,0 | 102,230,0 | 102,255,0 |
6 | 128,0,0 | 128,26,0 | 128,51,0 | 128,77,0 | 128,102,0 | 128,128,0 | 128,153,0 | 128,179,0 | 128,204,0 | 128,230,0 | 128,255,0 |
7 | 153,0,0 | 153,26,0 | 153,51,0 | 153,77,0 | 153,102,0 | 153,128,0 | 153,153,0 | 153,179,0 | 153,204,0 | 153,230,0 | 153,255,0 |
8 | 179,0,0 | 179,26,0 | 179,51,0 | 179,77,0 | 179,102,0 | 179,128,0 | 179,153,0 | 179,179,0 | 179,204,0 | 179,230,0 | 179,255,0 |
9 | 204,0,0 | 204,26,0 | 204,51,0 | 204,77,0 | 204,102,0 | 204,128,0 | 204,153,0 | 204,179,0 | 204,204,0 | 204,230,0 | 204,255,0 |
10 | 230,0,0 | 230,26,0 | 230,51,0 | 230,77,0 | 230,102,0 | 230,128,0 | 230,153,0 | 230,179,0 | 230,204,0 | 230,230,0 | 230,255,0 |
11 | 255,0,0 | 255,26,0 | 255,51,0 | 255,77,0 | 255,102,0 | 255,128,0 | 255,153,0 | 255,179,0 | 255,204,0 | 255,230,0 | 255,255,0 |
Visualization of the outer surface of the regular hexahedron of the RGB color space is shown in table 5 below.
TABLE 5
Visualization of the outer surface of the regular hexahedron of the RGB color space, as shown in table 6 below.
TABLE 6
KRMB | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,0,255 | 230,0,255 | 204,0,255 | 179,0,255 | 153,0,255 | 128,0,255 | 102,0,255 | 77,0,255 | 51,0,255 | 26,0,255 | 0,0,255 |
2 | 255,0,230 | 230,0,230 | 204,0,230 | 179,0,230 | 153,0,230 | 128,0,230 | 102,0,230 | 77,0,230 | 51,0,230 | 26,0,230 | 0,0,230 |
3 | 255,0,204 | 230,0,204 | 204,0,204 | 179,0,204 | 153,0,204 | 128,0,204 | 102,0,204 | 77,0,204 | 51,0,204 | 26,0,204 | 0,0,204 |
4 | 255,0,179 | 230,0,179 | 204,0,179 | 179,0,179 | 153,0,179 | 128,0,179 | 102,0,179 | 77,0,179 | 51,0,179 | 26,0,179 | 0,0,179 |
5 | 255,0,153 | 230,0,153 | 204,0,153 | 179,0,153 | 153,0,153 | 128,0,153 | 102,0,153 | 77,0,153 | 51,0,153 | 26,0,153 | 0,0,153 |
6 | 255,0,128 | 230,0,128 | 204,0,128 | 179,0,128 | 153,0,128 | 128,0,128 | 102,0,128 | 77,0,128 | 51,0,128 | 26,0,128 | 0,0,128 |
7 | 255,0,102 | 230,0,102 | 204,0,102 | 179,0,102 | 153,0,102 | 128,0,102 | 102,0,102 | 77,0,102 | 51,0,102 | 26,0,102 | 0,0,102 |
8 | 255,0,77 | 230,0,77 | 204,0,77 | 179,0,77 | 153,0,77 | 128,0,77 | 102,0,77 | 77,0,77 | 51,0,77 | 26,0,77 | 0,0,77 |
9 | 255,0,51 | 230,0,51 | 204,0,51 | 179,0,51 | 153,0,51 | 128,0,51 | 102,0,51 | 77,0,51 | 51,0,51 | 26,0,51 | 0,0,51 |
10 | 255,0,26 | 230,0,26 | 204,0,26 | 179,0,26 | 153,0,26 | 128,0,26 | 102,0,26 | 77,0,26 | 51,0,26 | 26,0,26 | 0,0,26 |
11 | 255,0,0 | 230,0,0 | 204,0,0 | 179,0,0 | 153,0,0 | 128,0,0 | 102,0,0 | 77,0,0 | 51,0,0 | 26,0,0 | 0,0,0 |
Visualization of the outer surface of the regular hexahedron of the RGB color space, as shown in table 7 below.
TABLE 7
GYWC | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,255,255 | 230,255,255 | 204,255,255 | 179,255,255 | 153,255,255 | 128,255,255 | 102,255,255 | 77,255,255 | 51,255,255 | 26,255,255 | 0,255,255 |
2 | 255,255,230 | 230,255,230 | 204,255,230 | 179,255,230 | 153,255,230 | 128,255,230 | 102,255,230 | 77,255,230 | 51,255,230 | 26,255,230 | 0,255,230 |
3 | 255,255,204 | 230,255,204 | 204,255,204 | 179,255,204 | 153,255,204 | 128,255,204 | 102,255,204 | 77,255,204 | 51,255,204 | 26,255,204 | 0,255,204 |
4 | 255,255,179 | 230,255,179 | 204,255,179 | 179,255,179 | 153,255,179 | 128,255,179 | 102,255,179 | 77,255,179 | 51,255,179 | 26,255,179 | 0,255,179 |
5 | 255,255,153 | 230,255,153 | 204,255,153 | 179,255,153 | 153,255,153 | 128,255,153 | 102,255,153 | 77,255,153 | 51,255,153 | 26,255,153 | 0,255,153 |
6 | 255,255,128 | 230,255,128 | 204,255,128 | 179,255,128 | 153,255,128 | 128,255,128 | 102,255,128 | 77,255,128 | 51,255,128 | 26,255,128 | 0,255,128 |
7 | 255,255,102 | 230,255,102 | 204,255,102 | 179,255,102 | 153,255,102 | 128,255,102 | 102,255,102 | 77,255,102 | 51,255,102 | 26,255,102 | 0,255,102 |
8 | 255,255,77 | 230,255,77 | 204,255,77 | 179,255,77 | 153,255,77 | 128,255,77 | 102,255,77 | 77,255,77 | 51,255,77 | 26,255,77 | 0,255,77 |
9 | 255,255,51 | 230,255,51 | 204,255,51 | 179,255,51 | 153,255,51 | 128,255,51 | 102,255,51 | 77,255,51 | 51,255,51 | 26,255,51 | 0,255,51 |
10 | 255,255,26 | 230,255,26 | 204,255,26 | 179,255,26 | 153,255,26 | 128,255,26 | 102,255,26 | 77,255,26 | 51,255,26 | 26,255,26 | 0,255,26 |
11 | 255,255,0 | 230,255,0 | 204,255,0 | 179,255,0 | 153,255,0 | 128,255,0 | 102,255,0 | 77,255,0 | 51,255,0 | 26,255,0 | 0,255,0 |
Visualization of the outer surface of the regular hexahedron of the RGB color space, as shown in table 8 below.
TABLE 8
Visualization of the outer surface of the regular hexahedron of the RGB color space, as shown in table 9 below.
TABLE 9
RYWM | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,0,255 | 255,26,255 | 255,51,255 | 255,77,255 | 255,102,255 | 255,128,255 | 255,153,255 | 255,179,255 | 255,204,255 | 255,230,255 | 255,255,255 |
2 | 255,0,230 | 255,26,230 | 255,51,230 | 255,77,230 | 255,102,230 | 255,128,230 | 255,153,230 | 255,179,230 | 255,204,230 | 255,230,230 | 255,255,230 |
3 | 255,0,204 | 255,26,204 | 255,51,204 | 255,77,204 | 255,102,204 | 255,128,204 | 255,153,204 | 255,179,204 | 255,204,204 | 255,230,204 | 255,255,204 |
4 | 255,0,179 | 255,26,179 | 255,51,179 | 255,77,179 | 255,102,179 | 255,128,179 | 255,153,179 | 255,179,179 | 255,204,179 | 255,230,179 | 255,255,179 |
5 | 255,0,153 | 255,26,153 | 255,51,153 | 255,77,153 | 255,102,153 | 255,128,153 | 255,153,153 | 255,179,153 | 255,204,153 | 255,230,153 | 255,255,153 |
6 | 255,0,128 | 255,26,128 | 255,51,128 | 255,77,128 | 255,102,128 | 255,128,128 | 255,153,128 | 255,179,128 | 255,204,128 | 255,230,128 | 255,255,128 |
7 | 255,0,102 | 255,26,102 | 255,51,102 | 255,77,102 | 255,102,102 | 255,128,102 | 255,153,102 | 255,179,102 | 255,204,102 | 255,230,102 | 255,255,102 |
8 | 255,0,77 | 255,26,77 | 255,51,77 | 255,77,77 | 255,102,77 | 255,128,77 | 255,153,77 | 255,179,77 | 255,204,77 | 255,230,77 | 255,255,77 |
9 | 255,0,51 | 255,26,51 | 255,51,51 | 255,77,51 | 255,102,51 | 255,128,51 | 255,153,51 | 255,179,51 | 255,204,51 | 255,230,51 | 255,255,51 |
10 | 255,0,26 | 255,26,26 | 255,51,26 | 255,77,26 | 255,102,26 | 255,128,26 | 255,153,26 | 255,179,26 | 255,204,26 | 255,230,26 | 255,255,26 |
11 | 255,0,0 | 255,26,0 | 255,51,0 | 255,77,0 | 255,102,0 | 255,128,0 | 255,153,0 | 255,179,0 | 255,204,0 | 255,230,0 | 255,255,0 |
Visualization of an RGB color space regular hexahedral internal cross-section
(1) In the RGB color space, the color is crossedDividing each grid point and with->The color values of the vertical 11 sections, i.e. the visualization of the regular hexahedral cross-section of the RGB color space, are shown in table 10 below.
Table 10
i=1 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,255 | 0,26,255 | 0,51,255 | 0,77,255 | 0,102,255 | 0,128,255 | 0,153,255 | 0,179,255 | 0,204,255 | 0,230,255 | 0,255,255 |
2 | 0,0,230 | 0,26,230 | 0,51,230 | 0,77,230 | 0,102,230 | 0,128,230 | 0,153,230 | 0,179,230 | 0,204,230 | 0,230,230 | 0,255,230 |
3 | 0,0,204 | 0,26,204 | 0,51,204 | 0,77,204 | 0,102,204 | 0,128,204 | 0,153,204 | 0,179,204 | 0,204,204 | 0,230,204 | 0,255,204 |
4 | 0,0,179 | 0,26,179 | 0,51,179 | 0,77,179 | 0,102,179 | 0,128,179 | 0,153,179 | 0,179,179 | 0,204,179 | 0,230,179 | 0,255,179 |
5 | 0,0,153 | 0,26,153 | 0,51,153 | 0,77,153 | 0,102,153 | 0,128,153 | 0,153,153 | 0,179,153 | 0,204,153 | 0,230,153 | 0,255,153 |
6 | 0,0,128 | 0,26,128 | 0,51,128 | 0,77,128 | 0,102,128 | 0,128,128 | 0,153,128 | 0,179,128 | 0,204,128 | 0,230,128 | 0,255,128 |
7 | 0,0,102 | 0,26,102 | 0,51,102 | 0,77,102 | 0,102,102 | 0,128,102 | 0,153,102 | 0,179,102 | 0,204,102 | 0,230,102 | 0,255,102 |
8 | 0,0,77 | 0,26,77 | 0,51,77 | 0,77,77 | 0,102,77 | 0,128,77 | 0,153,77 | 0,179,77 | 0,204,77 | 0,230,77 | 0,255,77 |
9 | 0,0,51 | 0,26,51 | 0,51,51 | 0,77,51 | 0,102,51 | 0,128,51 | 0,153,51 | 0,179,51 | 0,204,51 | 0,230,51 | 0,255,51 |
10 | 0,0,26 | 0,26,26 | 0,51,26 | 0,77,26 | 0,102,26 | 0,128,26 | 0,153,26 | 0,179,26 | 0,204,26 | 0,230,26 | 0,255,26 |
11 | 0,0,0 | 0,26,0 | 0,51,0 | 0,77,0 | 0,102,0 | 0,128,0 | 0,153,0 | 0,179,0 | 0,204,0 | 0,230,0 | 0,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 11 below.
TABLE 11
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 12 below.
Table 12
i=3 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 51,0,255 | 51,26,255 | 51,51,255 | 51,77,255 | 51,102,255 | 51,128,255 | 51,153,255 | 51,179,255 | 51,204,255 | 51,230,255 | 51,255,255 |
2 | 51,0,230 | 51,26,230 | 51,51,230 | 51,77,230 | 51,102,230 | 51,128,230 | 51,153,230 | 51,179,230 | 51,204,230 | 51,230,230 | 51,255,230 |
3 | 51,0,204 | 51,26,204 | 51,51,204 | 51,77,204 | 51,102,204 | 51,128,204 | 51,153,204 | 51,179,204 | 51,204,204 | 51,230,204 | 51,255,204 |
4 | 51,0,179 | 51,26,179 | 51,51,179 | 51,77,179 | 51,102,179 | 51,128,179 | 51,153,179 | 51,179,179 | 51,204,179 | 51,230,179 | 51,255,179 |
5 | 51,0,153 | 51,26,153 | 51,51,153 | 51,77,153 | 51,102,153 | 51,128,153 | 51,153,153 | 51,179,153 | 51,204,153 | 51,230,153 | 51,255,153 |
6 | 51,0,128 | 51,26,128 | 51,51,128 | 51,77,128 | 51,102,128 | 51,128,128 | 51,153,128 | 51,179,128 | 51,204,128 | 51,230,128 | 51,255,128 |
7 | 51,0,102 | 51,26,102 | 51,51,102 | 51,77,102 | 51,102,102 | 51,128,102 | 51,153,102 | 51,179,102 | 51,204,102 | 51,230,102 | 51,255,102 |
8 | 51,0,77 | 51,26,77 | 51,51,77 | 51,77,77 | 51,102,77 | 51,128,77 | 51,153,77 | 51,179,77 | 51,204,77 | 51,230,77 | 51,255,77 |
9 | 51,0,51 | 51,26,51 | 51,51,51 | 51,77,51 | 51,102,51 | 51,128,51 | 51,153,51 | 51,179,51 | 51,204,51 | 51,230,51 | 51,255,51 |
10 | 51,0,26 | 51,26,26 | 51,51,26 | 51,77,26 | 51,102,26 | 51,128,26 | 51,153,26 | 51,179,26 | 51,204,26 | 51,230,26 | 51,255,26 |
11 | 51,0,0 | 51,26,0 | 51,51,0 | 51,77,0 | 51,102,0 | 51,128,0 | 51,153,0 | 51,179,0 | 51,204,0 | 51,230,0 | 51,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 13 below.
TABLE 13
i=4 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 77,0,255 | 77,26,255 | 77,51,255 | 77,77,255 | 77,102,255 | 77,128,255 | 77,153,255 | 77,179,255 | 77,204,255 | 77,230,255 | 77,255,255 |
2 | 77,0,230 | 77,26,230 | 77,51,230 | 77,77,230 | 77,102,230 | 77,128,230 | 77,153,230 | 77,179,230 | 77,204,230 | 77,230,230 | 77,255,230 |
3 | 77,0,204 | 77,26,204 | 77,51,204 | 77,77,204 | 77,102,204 | 77,128,204 | 77,153,204 | 77,179,204 | 77,204,204 | 77,230,204 | 77,255,204 |
4 | 77,0,179 | 77,26,179 | 77,51,179 | 77,77,179 | 77,102,179 | 77,128,179 | 77,153,179 | 77,179,179 | 77,204,179 | 77,230,179 | 77,255,179 |
5 | 77,0,153 | 77,26,153 | 77,51,153 | 77,77,153 | 77,102,153 | 77,128,153 | 77,153,153 | 77,179,153 | 77,204,153 | 77,230,153 | 77,255,153 |
6 | 77,0,128 | 77,26,128 | 77,51,128 | 77,77,128 | 77,102,128 | 77,128,128 | 77,153,128 | 77,179,128 | 77,204,128 | 77,230,128 | 77,255,128 |
7 | 77,0,102 | 77,26,102 | 77,51,102 | 77,77,102 | 77,102,102 | 77,128,102 | 77,153,102 | 77,179,102 | 77,204,102 | 77,230,102 | 77,255,102 |
8 | 77,0,77 | 77,26,77 | 77,51,77 | 77,77,77 | 77,102,77 | 77,128,77 | 77,153,77 | 77,179,77 | 77,204,77 | 77,230,77 | 77,255,77 |
9 | 77,0,51 | 77,26,51 | 77,51,51 | 77,77,51 | 77,102,51 | 77,128,51 | 77,153,51 | 77,179,51 | 77,204,51 | 77,230,51 | 77,255,51 |
10 | 77,0,26 | 77,26,26 | 77,51,26 | 77,77,26 | 77,102,26 | 77,128,26 | 77,153,26 | 77,179,26 | 77,204,26 | 77,230,26 | 77,255,26 |
11 | 77,0,0 | 77,26,0 | 77,51,0 | 77,77,0 | 77,102,0 | 77,128,0 | 77,153,0 | 77,179,0 | 77,204,0 | 77,230,0 | 77,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 14 below.
TABLE 14
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 15 below.
TABLE 15
i=6 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 128,0,255 | 128,26,255 | 128,51,255 | 128,77,255 | 128,102,255 | 128,128,255 | 128,153,255 | 128,179,255 | 128,204,255 | 128,230,255 | 128,255,255 |
2 | 128,0,230 | 128,26,230 | 128,51,230 | 128,77,230 | 128,102,230 | 128,128,230 | 128,153,230 | 128,179,230 | 128,204,230 | 128,230,230 | 128,255,230 |
3 | 128,0,204 | 128,26,204 | 128,51,204 | 128,77,204 | 128,102,204 | 128,128,204 | 128,153,204 | 128,179,204 | 128,204,204 | 128,230,204 | 128,255,204 |
4 | 128,0,179 | 128,26,179 | 128,51,179 | 128,77,179 | 128,102,179 | 128,128,179 | 128,153,179 | 128,179,179 | 128,204,179 | 128,230,179 | 128,255,179 |
5 | 128,0,153 | 128,26,153 | 128,51,153 | 128,77,153 | 128,102,153 | 128,128,153 | 128,153,153 | 128,179,153 | 128,204,153 | 128,230,153 | 128,255,153 |
6 | 128,0,128 | 128,26,128 | 128,51,128 | 128,77,128 | 128,102,128 | 128,128,128 | 128,153,128 | 128,179,128 | 128,204,128 | 128,230,128 | 128,255,128 |
7 | 128,0,102 | 128,26,102 | 128,51,102 | 128,77,102 | 128,102,102 | 128,128,102 | 128,153,102 | 128,179,102 | 128,204,102 | 128,230,102 | 128,255,102 |
8 | 128,0,77 | 128,26,77 | 128,51,77 | 128,77,77 | 128,102,77 | 128,128,77 | 128,153,77 | 128,179,77 | 128,204,77 | 128,230,77 | 128,255,77 |
9 | 128,0,51 | 128,26,51 | 128,51,51 | 128,77,51 | 128,102,51 | 128,128,51 | 128,153,51 | 128,179,51 | 128,204,51 | 128,230,51 | 128,255,51 |
10 | 128,0,26 | 128,26,26 | 128,51,26 | 128,77,26 | 128,102,26 | 128,128,26 | 128,153,26 | 128,179,26 | 128,204,26 | 128,230,26 | 128,255,26 |
11 | 128,0,0 | 128,26,0 | 128,51,0 | 128,77,0 | 128,102,0 | 128,128,0 | 128,153,0 | 128,179,0 | 128,204,0 | 128,230,0 | 128,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 16 below.
Table 16
i=7 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 153,0,255 | 153,26,255 | 153,51,255 | 153,77,255 | 153,102,255 | 153,128,255 | 153,153,255 | 153,179,255 | 153,204,255 | 153,230,255 | 153,255,255 |
2 | 153,0,230 | 153,26,230 | 153,51,230 | 153,77,230 | 153,102,230 | 153,128,230 | 153,153,230 | 153,179,230 | 153,204,230 | 153,230,230 | 153,255,230 |
3 | 153,0,204 | 153,26,204 | 153,51,204 | 153,77,204 | 153,102,204 | 153,128,204 | 153,153,204 | 153,179,204 | 153,204,204 | 153,230,204 | 153,255,204 |
4 | 153,0,179 | 153,26,179 | 153,51,179 | 153,77,179 | 153,102,179 | 153,128,179 | 153,153,179 | 153,179,179 | 153,204,179 | 153,230,179 | 153,255,179 |
5 | 153,0,153 | 153,26,153 | 153,51,153 | 153,77,153 | 153,102,153 | 153,128,153 | 153,153,153 | 153,179,153 | 153,204,153 | 153,230,153 | 153,255,153 |
6 | 153,0,128 | 153,26,128 | 153,51,128 | 153,77,128 | 153,102,128 | 153,128,128 | 153,153,128 | 153,179,128 | 153,204,128 | 153,230,128 | 153,255,128 |
7 | 153,0,102 | 153,26,102 | 153,51,102 | 153,77,102 | 153,102,102 | 153,128,102 | 153,153,102 | 153,179,102 | 153,204,102 | 153,230,102 | 153,255,102 |
8 | 153,0,77 | 153,26,77 | 153,51,77 | 153,77,77 | 153,102,77 | 153,128,77 | 153,153,77 | 153,179,77 | 153,204,77 | 153,230,77 | 153,255,77 |
9 | 153,0,51 | 153,26,51 | 153,51,51 | 153,77,51 | 153,102,51 | 153,128,51 | 153,153,51 | 153,179,51 | 153,204,51 | 153,230,51 | 153,255,51 |
10 | 153,0,26 | 153,26,26 | 153,51,26 | 153,77,26 | 153,102,26 | 153,128,26 | 153,153,26 | 153,179,26 | 153,204,26 | 153,230,26 | 153,255,26 |
11 | 153,0,0 | 153,26,0 | 153,51,0 | 153,77,0 | 153,102,0 | 153,128,0 | 153,153,0 | 153,179,0 | 153,204,0 | 153,230,0 | 153,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 17 below.
TABLE 17
i=8 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 179,0,255 | 179,26,255 | 179,51,255 | 179,77,255 | 179,102,255 | 179,128,255 | 179,153,255 | 179,179,255 | 179,204,255 | 179,230,255 | 179,255,255 |
2 | 179,0,230 | 179,26,230 | 179,51,230 | 179,77,230 | 179,102,230 | 179,128,230 | 179,153,230 | 179,179,230 | 179,204,230 | 179,230,230 | 179,255,230 |
3 | 179,0,204 | 179,26,204 | 179,51,204 | 179,77,204 | 179,102,204 | 179,128,204 | 179,153,204 | 179,179,204 | 179,204,204 | 179,230,204 | 179,255,204 |
4 | 179,0,179 | 179,26,179 | 179,51,179 | 179,77,179 | 179,102,179 | 179,128,179 | 179,153,179 | 179,179,179 | 179,204,179 | 179,230,179 | 179,255,179 |
5 | 179,0,153 | 179,26,153 | 179,51,153 | 179,77,153 | 179,102,153 | 179,128,153 | 179,153,153 | 179,179,153 | 179,204,153 | 179,230,153 | 179,255,153 |
6 | 179,0,128 | 179,26,128 | 179,51,128 | 179,77,128 | 179,102,128 | 179,128,128 | 179,153,128 | 179,179,128 | 179,204,128 | 179,230,128 | 179,255,128 |
7 | 179,0,102 | 179,26,102 | 179,51,102 | 179,77,102 | 179,102,102 | 179,128,102 | 179,153,102 | 179,179,102 | 179,204,102 | 179,230,102 | 179,255,102 |
8 | 179,0,77 | 179,26,77 | 179,51,77 | 179,77,77 | 179,102,77 | 179,128,77 | 179,153,77 | 179,179,77 | 179,204,77 | 179,230,77 | 179,255,77 |
9 | 179,0,51 | 179,26,51 | 179,51,51 | 179,77,51 | 179,102,51 | 179,128,51 | 179,153,51 | 179,179,51 | 179,204,51 | 179,230,51 | 179,255,51 |
10 | 179,0,26 | 179,26,26 | 179,51,26 | 179,77,26 | 179,102,26 | 179,128,26 | 179,153,26 | 179,179,26 | 179,204,26 | 179,230,26 | 179,255,26 |
11 | 179,0,0 | 179,26,0 | 179,51,0 | 179,77,0 | 179,102,0 | 179,128,0 | 179,153,0 | 179,179,0 | 179,204,0 | 179,230,0 | 179,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 18 below.
TABLE 18
i=9 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 204,0,255 | 204,26,255 | 204,51,255 | 204,77,255 | 204,102,255 | 204,128,255 | 204,153,255 | 204,179,255 | 204,204,255 | 204,230,255 | 204,255,255 |
2 | 204,0,230 | 204,26,230 | 204,51,230 | 204,77,230 | 204,102,230 | 204,128,230 | 204,153,230 | 204,179,230 | 204,204,230 | 204,230,230 | 204,255,230 |
3 | 204,0,204 | 204,26,204 | 204,51,204 | 204,77,204 | 204,102,204 | 204,128,204 | 204,153,204 | 204,179,204 | 204,204,204 | 204,230,204 | 204,255,204 |
4 | 204,0,179 | 204,26,179 | 204,51,179 | 204,77,179 | 204,102,179 | 204,128,179 | 204,153,179 | 204,179,179 | 204,204,179 | 204,230,179 | 204,255,179 |
5 | 204,0,153 | 204,26,153 | 204,51,153 | 204,77,153 | 204,102,153 | 204,128,153 | 204,153,153 | 204,179,153 | 204,204,153 | 204,230,153 | 204,255,153 |
6 | 204,0,128 | 204,26,128 | 204,51,128 | 204,77,128 | 204,102,128 | 204,128,128 | 204,153,128 | 204,179,128 | 204,204,128 | 204,230,128 | 204,255,128 |
7 | 204,0,102 | 204,26,102 | 204,51,102 | 204,77,102 | 204,102,102 | 204,128,102 | 204,153,102 | 204,179,102 | 204,204,102 | 204,230,102 | 204,255,102 |
8 | 204,0,77 | 204,26,77 | 204,51,77 | 204,77,77 | 204,102,77 | 204,128,77 | 204,153,77 | 204,179,77 | 204,204,77 | 204,230,77 | 204,255,77 |
9 | 204,0,51 | 204,26,51 | 204,51,51 | 204,77,51 | 204,102,51 | 204,128,51 | 204,153,51 | 204,179,51 | 204,204,51 | 204,230,51 | 204,255,51 |
10 | 204,0,26 | 204,26,26 | 204,51,26 | 204,77,26 | 204,102,26 | 204,128,26 | 204,153,26 | 204,179,26 | 204,204,26 | 204,230,26 | 204,255,26 |
11 | 204,0,0 | 204,26,0 | 204,51,0 | 204,77,0 | 204,102,0 | 204,128,0 | 204,153,0 | 204,179,0 | 204,204,0 | 204,230,0 | 204,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 19 below.
TABLE 19
i=10 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 230,0,255 | 230,26,255 | 230,51,255 | 230,77,255 | 230,102,255 | 230,128,255 | 230,153,255 | 230,179,255 | 230,204,255 | 230,230,255 | 230,255,255 |
2 | 230,0,230 | 230,26,230 | 230,51,230 | 230,77,230 | 230,102,230 | 230,128,230 | 230,153,230 | 230,179,230 | 230,204,230 | 230,230,230 | 230,255,230 |
3 | 230,0,204 | 230,26,204 | 230,51,204 | 230,77,204 | 230,102,204 | 230,128,204 | 230,153,204 | 230,179,204 | 230,204,204 | 230,230,204 | 230,255,204 |
4 | 230,0,179 | 230,26,179 | 230,51,179 | 230,77,179 | 230,102,179 | 230,128,179 | 230,153,179 | 230,179,179 | 230,204,179 | 230,230,179 | 230,255,179 |
5 | 230,0,153 | 230,26,153 | 230,51,153 | 230,77,153 | 230,102,153 | 230,128,153 | 230,153,153 | 230,179,153 | 230,204,153 | 230,230,153 | 230,255,153 |
6 | 230,0,128 | 230,26,128 | 230,51,128 | 230,77,128 | 230,102,128 | 230,128,128 | 230,153,128 | 230,179,128 | 230,204,128 | 230,230,128 | 230,255,128 |
7 | 230,0,102 | 230,26,102 | 230,51,102 | 230,77,102 | 230,102,102 | 230,128,102 | 230,153,102 | 230,179,102 | 230,204,102 | 230,230,102 | 230,255,102 |
8 | 230,0,77 | 230,26,77 | 230,51,77 | 230,77,77 | 230,102,77 | 230,128,77 | 230,153,77 | 230,179,77 | 230,204,77 | 230,230,77 | 230,255,77 |
9 | 230,0,51 | 230,26,51 | 230,51,51 | 230,77,51 | 230,102,51 | 230,128,51 | 230,153,51 | 230,179,51 | 230,204,51 | 230,230,51 | 230,255,51 |
10 | 230,0,26 | 230,26,26 | 230,51,26 | 230,77,26 | 230,102,26 | 230,128,26 | 230,153,26 | 230,179,26 | 230,204,26 | 230,230,26 | 230,255,26 |
11 | 230,0,0 | 230,26,0 | 230,51,0 | 230,77,0 | 230,102,0 | 230,128,0 | 230,153,0 | 230,179,0 | 230,204,0 | 230,230,0 | 230,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 20 below.
Table 20
i=11 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,0,255 | 255,26,255 | 255,51,255 | 255,77,255 | 255,102,255 | 255,128,255 | 255,153,255 | 255,179,255 | 255,204,255 | 255,230,255 | 255,255,255 |
2 | 255,0,230 | 255,26,230 | 255,51,230 | 255,77,230 | 255,102,230 | 255,128,230 | 255,153,230 | 255,179,230 | 255,204,230 | 255,230,230 | 255,255,230 |
3 | 255,0,204 | 255,26,204 | 255,51,204 | 255,77,204 | 255,102,204 | 255,128,204 | 255,153,204 | 255,179,204 | 255,204,204 | 255,230,204 | 255,255,204 |
4 | 255,0,179 | 255,26,179 | 255,51,179 | 255,77,179 | 255,102,179 | 255,128,179 | 255,153,179 | 255,179,179 | 255,204,179 | 255,230,179 | 255,255,179 |
5 | 255,0,153 | 255,26,153 | 255,51,153 | 255,77,153 | 255,102,153 | 255,128,153 | 255,153,153 | 255,179,153 | 255,204,153 | 255,230,153 | 255,255,153 |
6 | 255,0,128 | 255,26,128 | 255,51,128 | 255,77,128 | 255,102,128 | 255,128,128 | 255,153,128 | 255,179,128 | 255,204,128 | 255,230,128 | 255,255,128 |
7 | 255,0,102 | 255,26,102 | 255,51,102 | 255,77,102 | 255,102,102 | 255,128,102 | 255,153,102 | 255,179,102 | 255,204,102 | 255,230,102 | 255,255,102 |
8 | 255,0,77 | 255,26,77 | 255,51,77 | 255,77,77 | 255,102,77 | 255,128,77 | 255,153,77 | 255,179,77 | 255,204,77 | 255,230,77 | 255,255,77 |
9 | 255,0,51 | 255,26,51 | 255,51,51 | 255,77,51 | 255,102,51 | 255,128,51 | 255,153,51 | 255,179,51 | 255,204,51 | 255,230,51 | 255,255,51 |
10 | 255,0,26 | 255,26,26 | 255,51,26 | 255,77,26 | 255,102,26 | 255,128,26 | 255,153,26 | 255,179,26 | 255,204,26 | 255,230,26 | 255,255,26 |
11 | 255,0,0 | 255,26,0 | 255,51,0 | 255,77,0 | 255,102,0 | 255,128,0 | 255,153,0 | 255,179,0 | 255,204,0 | 255,230,0 | 255,255,0 |
(2) In the RGB color space, the color is crossedDividing each grid point and with->Color values of 11 sections in the vertical, wherein the RGB color space is a visualization of the regular hexahedral in-vivo section, as shown in table 21 below.
Table 21
j=1 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,0,255 | 230,0,255 | 204,0,255 | 179,0,255 | 153,0,255 | 128,0,255 | 102,0,255 | 77,0,255 | 51,0,255 | 26,0,255 | 0,0,255 |
2 | 255,0,230 | 230,0,230 | 204,0,230 | 179,0,230 | 153,0,230 | 128,0,230 | 102,0,230 | 77,0,230 | 51,0,230 | 26,0,230 | 0,0,230 |
3 | 255,0,204 | 230,0,204 | 204,0,204 | 179,0,204 | 153,0,204 | 128,0,204 | 102,0,204 | 77,0,204 | 51,0,204 | 26,0,204 | 0,0,204 |
4 | 255,0,179 | 230,0,179 | 204,0,179 | 179,0,179 | 153,0,179 | 128,0,179 | 102,0,179 | 77,0,179 | 51,0,179 | 26,0,179 | 0,0,179 |
5 | 255,0,153 | 230,0,153 | 204,0,153 | 179,0,153 | 153,0,153 | 128,0,153 | 102,0,153 | 77,0,153 | 51,0,153 | 26,0,153 | 0,0,153 |
6 | 255,0,128 | 230,0,128 | 204,0,128 | 179,0,128 | 153,0,128 | 128,0,128 | 102,0,128 | 77,0,128 | 51,0,128 | 26,0,128 | 0,0,128 |
7 | 255,0,102 | 230,0,102 | 204,0,102 | 179,0,102 | 153,0,102 | 128,0,102 | 102,0,102 | 77,0,102 | 51,0,102 | 26,0,102 | 0,0,102 |
8 | 255,0,77 | 230,0,77 | 204,0,77 | 179,0,77 | 153,0,77 | 128,0,77 | 102,0,77 | 77,0,77 | 51,0,77 | 26,0,77 | 0,0,77 |
9 | 255,0,51 | 230,0,51 | 204,0,51 | 179,0,51 | 153,0,51 | 128,0,51 | 102,0,51 | 77,0,51 | 51,0,51 | 26,0,51 | 0,0,51 |
10 | 255,0,26 | 230,0,26 | 204,0,26 | 179,0,26 | 153,0,26 | 128,0,26 | 102,0,26 | 77,0,26 | 51,0,26 | 26,0,26 | 0,0,26 |
11 | 255,0,0 | 230,0,0 | 204,0,0 | 179,0,0 | 153,0,0 | 128,0,0 | 102,0,0 | 77,0,0 | 51,0,0 | 26,0,0 | 0,0,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 22 below.
Table 22
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 23 below.
Table 23
j=3 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,51,255 | 230,51,255 | 204,51,255 | 179,51,255 | 153,51,255 | 128,51,255 | 102,51,255 | 77,51,255 | 51,51,255 | 26,51,255 | 0,51,255 |
2 | 255,51,230 | 230,51,230 | 204,51,230 | 179,51,230 | 153,51,230 | 128,51,230 | 102,51,230 | 77,51,230 | 51,51,230 | 26,51,230 | 0,51,230 |
3 | 255,51,204 | 230,51,204 | 204,51,204 | 179,51,204 | 153,51,204 | 128,51,204 | 102,51,204 | 77,51,204 | 51,51,204 | 26,51,204 | 0,51,204 |
4 | 255,51,179 | 230,51,179 | 204,51,179 | 179,51,179 | 153,51,179 | 128,51,179 | 102,51,179 | 77,51,179 | 51,51,179 | 26,51,179 | 0,51,179 |
5 | 255,51,153 | 230,51,153 | 204,51,153 | 179,51,153 | 153,51,153 | 128,51,153 | 102,51,153 | 77,51,153 | 51,51,153 | 26,51,153 | 0,51,153 |
6 | 255,51,128 | 230,51,128 | 204,51,128 | 179,51,128 | 153,51,128 | 128,51,128 | 102,51,128 | 77,51,128 | 51,51,128 | 26,51,128 | 0,51,128 |
7 | 255,51,102 | 230,51,102 | 204,51,102 | 179,51,102 | 153,51,102 | 128,51,102 | 102,51,102 | 77,51,102 | 51,51,102 | 26,51,102 | 0,51,102 |
8 | 255,51,77 | 230,51,77 | 204,51,77 | 179,51,77 | 153,51,77 | 128,51,77 | 102,51,77 | 77,51,77 | 51,51,77 | 26,51,77 | 0,51,77 |
9 | 255,51,51 | 230,51,51 | 204,51,51 | 179,51,51 | 153,51,51 | 128,51,51 | 102,51,51 | 77,51,51 | 51,51,51 | 26,51,51 | 0,51,51 |
10 | 255,51,26 | 230,51,26 | 204,51,26 | 179,51,26 | 153,51,26 | 128,51,26 | 102,51,26 | 77,51,26 | 51,51,26 | 26,51,26 | 0,51,26 |
11 | 255,51,0 | 230,51,0 | 204,51,0 | 179,51,0 | 153,51,0 | 128,51,0 | 102,51,0 | 77,51,0 | 51,51,0 | 26,51,0 | 0,51,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 24 below.
Table 24
j=4 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,77,255 | 230,77,255 | 204,77,255 | 179,77,255 | 153,77,255 | 128,77,255 | 102,77,255 | 77,77,255 | 51,77,255 | 26,77,255 | 0,77,255 |
2 | 255,77,230 | 230,77,230 | 204,77,230 | 179,77,230 | 153,77,230 | 128,77,230 | 102,77,230 | 77,77,230 | 51,77,230 | 26,77,230 | 0,77,230 |
3 | 255,77,204 | 230,77,204 | 204,77,204 | 179,77,204 | 153,77,204 | 128,77,204 | 102,77,204 | 77,77,204 | 51,77,204 | 26,77,204 | 0,77,204 |
4 | 255,77,179 | 230,77,179 | 204,77,179 | 179,77,179 | 153,77,179 | 128,77,179 | 102,77,179 | 77,77,179 | 51,77,179 | 26,77,179 | 0,77,179 |
5 | 255,77,153 | 230,77,153 | 204,77,153 | 179,77,153 | 153,77,153 | 128,77,153 | 102,77,153 | 77,77,153 | 51,77,153 | 26,77,153 | 0,77,153 |
6 | 255,77,128 | 230,77,128 | 204,77,128 | 179,77,128 | 153,77,128 | 128,77,128 | 102,77,128 | 77,77,128 | 51,77,128 | 26,77,128 | 0,77,128 |
7 | 255,77,102 | 230,77,102 | 204,77,102 | 179,77,102 | 153,77,102 | 128,77,102 | 102,77,102 | 77,77,102 | 51,77,102 | 26,77,102 | 0,77,102 |
8 | 255,77,77 | 230,77,77 | 204,77,77 | 179,77,77 | 153,77,77 | 128,77,77 | 102,77,77 | 77,77,77 | 51,77,77 | 26,77,77 | 0,77,77 |
9 | 255,77,51 | 230,77,51 | 204,77,51 | 179,77,51 | 153,77,51 | 128,77,51 | 102,77,51 | 77,77,51 | 51,77,51 | 26,77,51 | 0,77,51 |
10 | 255,77,26 | 230,77,26 | 204,77,26 | 179,77,26 | 153,77,26 | 128,77,26 | 102,77,26 | 77,77,26 | 51,77,26 | 26,77,26 | 0,77,26 |
11 | 255,77,0 | 230,77,0 | 204,77,0 | 179,77,0 | 153,77,0 | 128,77,0 | 102,77,0 | 77,77,0 | 51,77,0 | 26,77,0 | 0,77,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 25 below.
Table 25
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 26 below.
Table 26
j=6 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,128,255 | 230,128,255 | 204,128,255 | 179,128,255 | 153,128,255 | 128,128,255 | 102,128,255 | 77,128,255 | 51,128,255 | 26,128,255 | 0,128,255 |
2 | 255,128,230 | 230,128,230 | 204,128,230 | 179,128,230 | 153,128,230 | 128,128,230 | 102,128,230 | 77,128,230 | 51,128,230 | 26,128,230 | 0,128,230 |
3 | 255,128,204 | 230,128,204 | 204,128,204 | 179,128,204 | 153,128,204 | 128,128,204 | 102,128,204 | 77,128,204 | 51,128,204 | 26,128,204 | 0,128,204 |
4 | 255,128,179 | 230,128,179 | 204,128,179 | 179,128,179 | 153,128,179 | 128,128,179 | 102,128,179 | 77,128,179 | 51,128,179 | 26,128,179 | 0,128,179 |
5 | 255,128,153 | 230,128,153 | 204,128,153 | 179,128,153 | 153,128,153 | 128,128,153 | 102,128,153 | 77,128,153 | 51,128,153 | 26,128,153 | 0,128,153 |
6 | 255,128,128 | 230,128,128 | 204,128,128 | 179,128,128 | 153,128,128 | 128,128,128 | 102,128,128 | 77,128,128 | 51,128,128 | 26,128,128 | 0,128,128 |
7 | 255,128,102 | 230,128,102 | 204,128,102 | 179,128,102 | 153,128,102 | 128,128,102 | 102,128,102 | 77,128,102 | 51,128,102 | 26,128,102 | 0,128,102 |
8 | 255,128,77 | 230,128,77 | 204,128,77 | 179,128,77 | 153,128,77 | 128,128,77 | 102,128,77 | 77,128,77 | 51,128,77 | 26,128,77 | 0,128,77 |
9 | 255,128,51 | 230,128,51 | 204,128,51 | 179,128,51 | 153,128,51 | 128,128,51 | 102,128,51 | 77,128,51 | 51,128,51 | 26,128,51 | 0,128,51 |
10 | 255,128,26 | 230,128,26 | 204,128,26 | 179,128,26 | 153,128,26 | 128,128,26 | 102,128,26 | 77,128,26 | 51,128,26 | 26,128,26 | 0,128,26 |
11 | 255,128,0 | 230,128,0 | 204,128,0 | 179,128,0 | 153,128,0 | 128,128,0 | 102,128,0 | 77,128,0 | 51,128,0 | 26,128,0 | 0,128,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 27 below.
Table 27
j=7 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,153,255 | 230,153,255 | 204,153,255 | 179,153,255 | 153,153,255 | 128,153,255 | 102,153,255 | 77,153,255 | 51,153,255 | 26,153,255 | 0,153,255 |
2 | 255,153,230 | 230,153,230 | 204,153,230 | 179,153,230 | 153,153,230 | 128,153,230 | 102,153,230 | 77,153,230 | 51,153,230 | 26,153,230 | 0,153,230 |
3 | 255,153,204 | 230,153,204 | 204,153,204 | 179,153,204 | 153,153,204 | 128,153,204 | 102,153,204 | 77,153,204 | 51,153,204 | 26,153,204 | 0,153,204 |
4 | 255,153,179 | 230,153,179 | 204,153,179 | 179,153,179 | 153,153,179 | 128,153,179 | 102,153,179 | 77,153,179 | 51,153,179 | 26,153,179 | 0,153,179 |
5 | 255,153,153 | 230,153,153 | 204,153,153 | 179,153,153 | 153,153,153 | 128,153,153 | 102,153,153 | 77,153,153 | 51,153,153 | 26,153,153 | 0,153,153 |
6 | 255,153,128 | 230,153,128 | 204,153,128 | 179,153,128 | 153,153,128 | 128,153,128 | 102,153,128 | 77,153,128 | 51,153,128 | 26,153,128 | 0,153,128 |
7 | 255,153,102 | 230,153,102 | 204,153,102 | 179,153,102 | 153,153,102 | 128,153,102 | 102,153,102 | 77,153,102 | 51,153,102 | 26,153,102 | 0,153,102 |
8 | 255,153,77 | 230,153,77 | 204,153,77 | 179,153,77 | 153,153,77 | 128,153,77 | 102,153,77 | 77,153,77 | 51,153,77 | 26,153,77 | 0,153,77 |
9 | 255,153,51 | 230,153,51 | 204,153,51 | 179,153,51 | 153,153,51 | 128,153,51 | 102,153,51 | 77,153,51 | 51,153,51 | 26,153,51 | 0,153,51 |
10 | 255,153,26 | 230,153,26 | 204,153,26 | 179,153,26 | 153,153,26 | 128,153,26 | 102,153,26 | 77,153,26 | 51,153,26 | 26,153,26 | 0,153,26 |
11 | 255,153,0 | 230,153,0 | 204,153,0 | 179,153,0 | 153,153,0 | 128,153,0 | 102,153,0 | 77,153,0 | 51,153,0 | 26,153,0 | 0,153,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 28 below.
Table 28
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 29 below.
Table 29
j=9 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,204,255 | 230,204,255 | 204,204,255 | 179,204,255 | 153,204,255 | 128,204,255 | 102,204,255 | 77,204,255 | 51,204,255 | 26,204,255 | 0,204,255 |
2 | 255,204,230 | 230,204,230 | 204,204,230 | 179,204,230 | 153,204,230 | 128,204,230 | 102,204,230 | 77,204,230 | 51,204,230 | 26,204,230 | 0,204,230 |
3 | 255,204,204 | 230,204,204 | 204,204,204 | 179,204,204 | 153,204,204 | 128,204,204 | 102,204,204 | 77,204,204 | 51,204,204 | 26,204,204 | 0,204,204 |
4 | 255,204,179 | 230,204,179 | 204,204,179 | 179,204,179 | 153,204,179 | 128,204,179 | 102,204,179 | 77,204,179 | 51,204,179 | 26,204,179 | 0,204,179 |
5 | 255,204,153 | 230,204,153 | 204,204,153 | 179,204,153 | 153,204,153 | 128,204,153 | 102,204,153 | 77,204,153 | 51,204,153 | 26,204,153 | 0,204,153 |
6 | 255,204,128 | 230,204,128 | 204,204,128 | 179,204,128 | 153,204,128 | 128,204,128 | 102,204,128 | 77,204,128 | 51,204,128 | 26,204,128 | 0,204,128 |
7 | 255,204,102 | 230,204,102 | 204,204,102 | 179,204,102 | 153,204,102 | 128,204,102 | 102,204,102 | 77,204,102 | 51,204,102 | 26,204,102 | 0,204,102 |
8 | 255,204,77 | 230,204,77 | 204,204,77 | 179,204,77 | 153,204,77 | 128,204,77 | 102,204,77 | 77,204,77 | 51,204,77 | 26,204,77 | 0,204,77 |
9 | 255,204,51 | 230,204,51 | 204,204,51 | 179,204,51 | 153,204,51 | 128,204,51 | 102,204,51 | 77,204,51 | 51,204,51 | 26,204,51 | 0,204,51 |
10 | 255,204,26 | 230,204,26 | 204,204,26 | 179,204,26 | 153,204,26 | 128,204,26 | 102,204,26 | 77,204,26 | 51,204,26 | 26,204,26 | 0,204,26 |
11 | 255,204,0 | 230,204,0 | 204,204,0 | 179,204,0 | 153,204,0 | 128,204,0 | 102,204,0 | 77,204,0 | 51,204,0 | 26,204,0 | 0,204,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 30 below.
Table 30
j=10 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 255,230,255 | 230,230,255 | 204,230,255 | 179,230,255 | 153,230,255 | 128,230,255 | 102,230,255 | 77,230,255 | 51,230,255 | 26,230,255 | 0,230,255 |
2 | 255,230,230 | 230,230,230 | 204,230,230 | 179,230,230 | 153,230,230 | 128,230,230 | 102,230,230 | 77,230,230 | 51,230,230 | 26,230,230 | 0,230,230 |
3 | 255,230,204 | 230,230,204 | 204,230,204 | 179,230,204 | 153,230,204 | 128,230,204 | 102,230,204 | 77,230,204 | 51,230,204 | 26,230,204 | 0,230,204 |
4 | 255,230,179 | 230,230,179 | 204,230,179 | 179,230,179 | 153,230,179 | 128,230,179 | 102,230,179 | 77,230,179 | 51,230,179 | 26,230,179 | 0,230,179 |
5 | 255,230,153 | 230,230,153 | 204,230,153 | 179,230,153 | 153,230,153 | 128,230,153 | 102,230,153 | 77,230,153 | 51,230,153 | 26,230,153 | 0,230,153 |
6 | 255,230,128 | 230,230,128 | 204,230,128 | 179,230,128 | 153,230,128 | 128,230,128 | 102,230,128 | 77,230,128 | 51,230,128 | 26,230,128 | 0,230,128 |
7 | 255,230,102 | 230,230,102 | 204,230,102 | 179,230,102 | 153,230,102 | 128,230,102 | 102,230,102 | 77,230,102 | 51,230,102 | 26,230,102 | 0,230,102 |
8 | 255,230,77 | 230,230,77 | 204,230,77 | 179,230,77 | 153,230,77 | 128,230,77 | 102,230,77 | 77,230,77 | 51,230,77 | 26,230,77 | 0,230,77 |
9 | 255,230,51 | 230,230,51 | 204,230,51 | 179,230,51 | 153,230,51 | 128,230,51 | 102,230,51 | 77,230,51 | 51,230,51 | 26,230,51 | 0,230,51 |
10 | 255,230,26 | 230,230,26 | 204,230,26 | 179,230,26 | 153,230,26 | 128,230,26 | 102,230,26 | 77,230,26 | 51,230,26 | 26,230,26 | 0,230,26 |
11 | 255,230,0 | 230,230,0 | 204,230,0 | 179,230,0 | 153,230,0 | 128,230,0 | 102,230,0 | 77,230,0 | 51,230,0 | 26,230,0 | 0,230,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 31 below.
Table 31
/>
(3) In the RGB color space, we can getDividing each grid point and with->Color values of 11 sections in the vertical, wherein the RGB color space is a visualization of the regular hexahedral in-vivo section, as shown in table 32 below.
Table 32
k=1 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,0 | 0,26,0 | 0,51,0 | 0,77,0 | 0,102,0 | 0,128,0 | 0,153,0 | 0,179,0 | 0,204,0 | 0,230,0 | 0,255,0 |
2 | 26,0,0 | 26,26,0 | 26,51,0 | 26,77,0 | 26,102,0 | 26,128,0 | 26,153,0 | 26,179,0 | 26,204,0 | 26,230,0 | 26,255,0 |
3 | 51,0,0 | 51,26,0 | 51,51,0 | 51,77,0 | 51,102,0 | 51,128,0 | 51,153,0 | 51,179,0 | 51,204,0 | 51,230,0 | 51,255,0 |
4 | 77,0,0 | 77,26,0 | 77,51,0 | 77,77,0 | 77,102,0 | 77,128,0 | 77,153,0 | 77,179,0 | 77,204,0 | 77,230,0 | 77,255,0 |
5 | 102,0,0 | 102,26,0 | 102,51,0 | 102,77,0 | 102,102,0 | 102,128,0 | 102,153,0 | 102,179,0 | 102,204,0 | 102,230,0 | 102,255,0 |
6 | 128,0,0 | 128,26,0 | 128,51,0 | 128,77,0 | 128,102,0 | 128,128,0 | 128,153,0 | 128,179,0 | 128,204,0 | 128,230,0 | 128,255,0 |
7 | 153,0,0 | 153,26,0 | 153,51,0 | 153,77,0 | 153,102,0 | 153,128,0 | 153,153,0 | 153,179,0 | 153,204,0 | 153,230,0 | 153,255,0 |
8 | 179,0,0 | 179,26,0 | 179,51,0 | 179,77,0 | 179,102,0 | 179,128,0 | 179,153,0 | 179,179,0 | 179,204,0 | 179,230,0 | 179,255,0 |
9 | 204,0,0 | 204,26,0 | 204,51,0 | 204,77,0 | 204,102,0 | 204,128,0 | 204,153,0 | 204,179,0 | 204,204,0 | 204,230,0 | 204,255,0 |
10 | 230,0,0 | 230,26,0 | 230,51,0 | 230,77,0 | 230,102,0 | 230,128,0 | 230,153,0 | 230,179,0 | 230,204,0 | 230,230,0 | 230,255,0 |
11 | 255,0,0 | 255,26,0 | 255,51,0 | 255,77,0 | 255,102,0 | 255,128,0 | 255,153,0 | 255,179,0 | 255,204,0 | 255,230,0 | 255,255,0 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 33 below.
Table 33
k=2 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,26 | 0,26,26 | 0,51,26 | 0,77,26 | 0,102,26 | 0,128,26 | 0,153,26 | 0,179,26 | 0,204,26 | 0,230,26 | 0,255,26 |
2 | 26,0,26 | 26,26,26 | 26,51,26 | 26,77,26 | 26,102,26 | 26,128,26 | 26,153,26 | 26,179,26 | 26,204,26 | 26,230,26 | 26,255,26 |
3 | 51,0,26 | 51,26,26 | 51,51,26 | 51,77,26 | 51,102,26 | 51,128,26 | 51,153,26 | 51,179,26 | 51,204,26 | 51,230,26 | 51,255,26 |
4 | 77,0,26 | 77,26,26 | 77,51,26 | 77,77,26 | 77,102,26 | 77,128,26 | 77,153,26 | 77,179,26 | 77,204,26 | 77,230,26 | 77,255,26 |
5 | 102,0,26 | 102,26,26 | 102,51,26 | 102,77,26 | 102,102,26 | 102,128,26 | 102,153,26 | 102,179,26 | 102,204,26 | 102,230,26 | 102,255,26 |
6 | 128,0,26 | 128,26,26 | 128,51,26 | 128,77,26 | 128,102,26 | 128,128,26 | 128,153,26 | 128,179,26 | 128,204,26 | 128,230,26 | 128,255,26 |
7 | 153,0,26 | 153,26,26 | 153,51,26 | 153,77,26 | 153,102,26 | 153,128,26 | 153,153,26 | 153,179,26 | 153,204,26 | 153,230,26 | 153,255,26 |
8 | 179,0,26 | 179,26,26 | 179,51,26 | 179,77,26 | 179,102,26 | 179,128,26 | 179,153,26 | 179,179,26 | 179,204,26 | 179,230,26 | 179,255,26 |
9 | 204,0,26 | 204,26,26 | 204,51,26 | 204,77,26 | 204,102,26 | 204,128,26 | 204,153,26 | 204,179,26 | 204,204,26 | 204,230,26 | 204,255,26 |
10 | 230,0,26 | 230,26,26 | 230,51,26 | 230,77,26 | 230,102,26 | 230,128,26 | 230,153,26 | 230,179,26 | 230,204,26 | 230,230,26 | 230,255,26 |
11 | 255,0,26 | 255,26,26 | 255,51,26 | 255,77,26 | 255,102,26 | 255,128,26 | 255,153,26 | 255,179,26 | 255,204,26 | 255,230,26 | 255,255,26 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 34 below.
Watch 34
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 35 below.
Table 35
k=4 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,77 | 0,26,77 | 0,51,77 | 0,77,77 | 0,102,77 | 0,128,77 | 0,153,77 | 0,179,77 | 0,204,77 | 0,230,77 | 0,255,77 |
2 | 26,0,77 | 26,26,77 | 26,51,77 | 26,77,77 | 26,102,77 | 26,128,77 | 26,153,77 | 26,179,77 | 26,204,77 | 26,230,77 | 26,255,77 |
3 | 51,0,77 | 51,26,77 | 51,51,77 | 51,77,77 | 51,102,77 | 51,128,77 | 51,153,77 | 51,179,77 | 51,204,77 | 51,230,77 | 51,255,77 |
4 | 77,0,77 | 77,26,77 | 77,51,77 | 77,77,77 | 77,102,77 | 77,128,77 | 77,153,77 | 77,179,77 | 77,204,77 | 77,230,77 | 77,255,77 |
5 | 102,0,77 | 102,26,77 | 102,51,77 | 102,77,77 | 102,102,77 | 102,128,77 | 102,153,77 | 102,179,77 | 102,204,77 | 102,230,77 | 102,255,77 |
6 | 128,0,77 | 128,26,77 | 128,51,77 | 128,77,77 | 128,102,77 | 128,128,77 | 128,153,77 | 128,179,77 | 128,204,77 | 128,230,77 | 128,255,77 |
7 | 153,0,77 | 153,26,77 | 153,51,77 | 153,77,77 | 153,102,77 | 153,128,77 | 153,153,77 | 153,179,77 | 153,204,77 | 153,230,77 | 153,255,77 |
8 | 179,0,77 | 179,26,77 | 179,51,77 | 179,77,77 | 179,102,77 | 179,128,77 | 179,153,77 | 179,179,77 | 179,204,77 | 179,230,77 | 179,255,77 |
9 | 204,0,77 | 204,26,77 | 204,51,77 | 204,77,77 | 204,102,77 | 204,128,77 | 204,153,77 | 204,179,77 | 204,204,77 | 204,230,77 | 204,255,77 |
10 | 230,0,77 | 230,26,77 | 230,51,77 | 230,77,77 | 230,102,77 | 230,128,77 | 230,153,77 | 230,179,77 | 230,204,77 | 230,230,77 | 230,255,77 |
11 | 255,0,77 | 255,26,77 | 255,51,77 | 255,77,77 | 255,102,77 | 255,128,77 | 255,153,77 | 255,179,77 | 255,204,77 | 255,230,77 | 255,255,77 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 36 below.
Table 36
k=5 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,102 | 0,26,102 | 0,51,102 | 0,77,102 | 0,102,102 | 0,128,102 | 0,153,102 | 0,179,102 | 0,204,102 | 0,230,102 | 0,255,102 |
2 | 26,0,102 | 26,26,102 | 26,51,102 | 26,77,102 | 26,102,102 | 26,128,102 | 26,153,102 | 26,179,102 | 26,204,102 | 26,230,102 | 26,255,102 |
3 | 51,0,102 | 51,26,102 | 51,51,102 | 51,77,102 | 51,102,102 | 51,128,102 | 51,153,102 | 51,179,102 | 51,204,102 | 51,230,102 | 51,255,102 |
4 | 77,0,102 | 77,26,102 | 77,51,102 | 77,77,102 | 77,102,102 | 77,128,102 | 77,153,102 | 77,179,102 | 77,204,102 | 77,230,102 | 77,255,102 |
5 | 102,0,102 | 102,26,102 | 102,51,102 | 102,77,102 | 102,102,102 | 102,128,102 | 102,153,102 | 102,179,102 | 102,204,102 | 102,230,102 | 102,255,102 |
6 | 128,0,102 | 128,26,102 | 128,51,102 | 128,77,102 | 128,102,102 | 128,128,102 | 128,153,102 | 128,179,102 | 128,204,102 | 128,230,102 | 128,255,102 |
7 | 153,0,102 | 153,26,102 | 153,51,102 | 153,77,102 | 153,102,102 | 153,128,102 | 153,153,102 | 153,179,102 | 153,204,102 | 153,230,102 | 153,255,102 |
8 | 179,0,102 | 179,26,102 | 179,51,102 | 179,77,102 | 179,102,102 | 179,128,102 | 179,153,102 | 179,179,102 | 179,204,102 | 179,230,102 | 179,255,102 |
9 | 204,0,102 | 204,26,102 | 204,51,102 | 204,77,102 | 204,102,102 | 204,128,102 | 204,153,102 | 204,179,102 | 204,204,102 | 204,230,102 | 204,255,102 |
10 | 230,0,102 | 230,26,102 | 230,51,102 | 230,77,102 | 230,102,102 | 230,128,102 | 230,153,102 | 230,179,102 | 230,204,102 | 230,230,102 | 230,255,102 |
11 | 255,0,102 | 255,26,102 | 255,51,102 | 255,77,102 | 255,102,102 | 255,128,102 | 255,153,102 | 255,179,102 | 255,204,102 | 255,230,102 | 255,255,102 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 37 below.
Table 37
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 38 below.
Table 38
k=7 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,153 | 0,26,153 | 0,51,153 | 0,77,153 | 0,102,153 | 0,128,153 | 0,153,153 | 0,179,153 | 0,204,153 | 0,230,153 | 0,255,153 |
2 | 26,0,153 | 26,26,153 | 26,51,153 | 26,77,153 | 26,102,153 | 26,128,153 | 26,153,153 | 26,179,153 | 26,204,153 | 26,230,153 | 26,255,153 |
3 | 51,0,153 | 51,26,153 | 51,51,153 | 51,77,153 | 51,102,153 | 51,128,153 | 51,153,153 | 51,179,153 | 51,204,153 | 51,230,153 | 51,255,153 |
4 | 77,0,153 | 77,26,153 | 77,51,153 | 77,77,153 | 77,102,153 | 77,128,153 | 77,153,153 | 77,179,153 | 77,204,153 | 77,230,153 | 77,255,153 |
5 | 102,0,153 | 102,26,153 | 102,51,153 | 102,77,153 | 102,102,153 | 102,128,153 | 102,153,153 | 102,179,153 | 102,204,153 | 102,230,153 | 102,255,153 |
6 | 128,0,153 | 128,26,153 | 128,51,153 | 128,77,153 | 128,102,153 | 128,128,153 | 128,153,153 | 128,179,153 | 128,204,153 | 128,230,153 | 128,255,153 |
7 | 153,0,153 | 153,26,153 | 153,51,153 | 153,77,153 | 153,102,153 | 153,128,153 | 153,153,153 | 153,179,153 | 153,204,153 | 153,230,153 | 153,255,153 |
8 | 179,0,153 | 179,26,153 | 179,51,153 | 179,77,153 | 179,102,153 | 179,128,153 | 179,153,153 | 179,179,153 | 179,204,153 | 179,230,153 | 179,255,153 |
9 | 204,0,153 | 204,26,153 | 204,51,153 | 204,77,153 | 204,102,153 | 204,128,153 | 204,153,153 | 204,179,153 | 204,204,153 | 204,230,153 | 204,255,153 |
10 | 230,0,153 | 230,26,153 | 230,51,153 | 230,77,153 | 230,102,153 | 230,128,153 | 230,153,153 | 230,179,153 | 230,204,153 | 230,230,153 | 230,255,153 |
11 | 255,0,153 | 255,26,153 | 255,51,153 | 255,77,153 | 255,102,153 | 255,128,153 | 255,153,153 | 255,179,153 | 255,204,153 | 255,230,153 | 255,255,153 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 39 below.
Table 39
k=8 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,179 | 0,26,179 | 0,51,179 | 0,77,179 | 0,102,179 | 0,128,179 | 0,153,179 | 0,179,179 | 0,204,179 | 0,230,179 | 0,255,179 |
2 | 26,0,179 | 26,26,179 | 26,51,179 | 26,77,179 | 26,102,179 | 26,128,179 | 26,153,179 | 26,179,179 | 26,204,179 | 26,230,179 | 26,255,179 |
3 | 51,0,179 | 51,26,179 | 51,51,179 | 51,77,179 | 51,102,179 | 51,128,179 | 51,153,179 | 51,179,179 | 51,204,179 | 51,230,179 | 51,255,179 |
4 | 77,0,179 | 77,26,179 | 77,51,179 | 77,77,179 | 77,102,179 | 77,128,179 | 77,153,179 | 77,179,179 | 77,204,179 | 77,230,179 | 77,255,179 |
5 | 102,0,179 | 102,26,179 | 102,51,179 | 102,77,179 | 102,102,179 | 102,128,179 | 102,153,179 | 102,179,179 | 102,204,179 | 102,230,179 | 102,255,179 |
6 | 128,0,179 | 128,26,179 | 128,51,179 | 128,77,179 | 128,102,179 | 128,128,179 | 128,153,179 | 128,179,179 | 128,204,179 | 128,230,179 | 128,255,179 |
7 | 153,0,179 | 153,26,179 | 153,51,179 | 153,77,179 | 153,102,179 | 153,128,179 | 153,153,179 | 153,179,179 | 153,204,179 | 153,230,179 | 153,255,179 |
8 | 179,0,179 | 179,26,179 | 179,51,179 | 179,77,179 | 179,102,179 | 179,128,179 | 179,153,179 | 179,179,179 | 179,204,179 | 179,230,179 | 179,255,179 |
9 | 204,0,179 | 204,26,179 | 204,51,179 | 204,77,179 | 204,102,179 | 204,128,179 | 204,153,179 | 204,179,179 | 204,204,179 | 204,230,179 | 204,255,179 |
10 | 230,0,179 | 230,26,179 | 230,51,179 | 230,77,179 | 230,102,179 | 230,128,179 | 230,153,179 | 230,179,179 | 230,204,179 | 230,230,179 | 230,255,179 |
11 | 255,0,179 | 255,26,179 | 255,51,179 | 255,77,179 | 255,102,179 | 255,128,179 | 255,153,179 | 255,179,179 | 255,204,179 | 255,230,179 | 255,255,179 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 40 below.
Table 40
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 41 below.
Table 41
k=10 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,230 | 0,26,230 | 0,51,230 | 0,77,230 | 0,102,230 | 0,128,230 | 0,153,230 | 0,179,230 | 0,204,230 | 0,230,230 | 0,255,230 |
2 | 26,0,230 | 26,26,230 | 26,51,230 | 26,77,230 | 26,102,230 | 26,128,230 | 26,153,230 | 26,179,230 | 26,204,230 | 26,230,230 | 26,255,230 |
3 | 51,0,230 | 51,26,230 | 51,51,230 | 51,77,230 | 51,102,230 | 51,128,230 | 51,153,230 | 51,179,230 | 51,204,230 | 51,230,230 | 51,255,230 |
4 | 77,0,230 | 77,26,230 | 77,51,230 | 77,77,230 | 77,102,230 | 77,128,230 | 77,153,230 | 77,179,230 | 77,204,230 | 77,230,230 | 77,255,230 |
5 | 102,0,230 | 102,26,230 | 102,51,230 | 102,77,230 | 102,102,230 | 102,128,230 | 102,153,230 | 102,179,230 | 102,204,230 | 102,230,230 | 102,255,230 |
6 | 128,0,230 | 128,26,230 | 128,51,230 | 128,77,230 | 128,102,230 | 128,128,230 | 128,153,230 | 128,179,230 | 128,204,230 | 128,230,230 | 128,255,230 |
7 | 153,0,230 | 153,26,230 | 153,51,230 | 153,77,230 | 153,102,230 | 153,128,230 | 153,153,230 | 153,179,230 | 153,204,230 | 153,230,230 | 153,255,230 |
8 | 179,0,230 | 179,26,230 | 179,51,230 | 179,77,230 | 179,102,230 | 179,128,230 | 179,153,230 | 179,179,230 | 179,204,230 | 179,230,230 | 179,255,230 |
9 | 204,0,230 | 204,26,230 | 204,51,230 | 204,77,230 | 204,102,230 | 204,128,230 | 204,153,230 | 204,179,230 | 204,204,230 | 204,230,230 | 204,255,230 |
10 | 230,0,230 | 230,26,230 | 230,51,230 | 230,77,230 | 230,102,230 | 230,128,230 | 230,153,230 | 230,179,230 | 230,204,230 | 230,230,230 | 230,255,230 |
11 | 255,0,230 | 255,26,230 | 255,51,230 | 255,77,230 | 255,102,230 | 255,128,230 | 255,153,230 | 255,179,230 | 255,204,230 | 255,230,230 | 255,255,230 |
Visualization of the regular hexahedral cross-section of the RGB color space, as shown in table 42 below.
Table 42
k=11 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 |
1 | 0,0,255 | 0,26,255 | 0,51,255 | 0,77,255 | 0,102,255 | 0,128,255 | 0,153,255 | 0,179,255 | 0,204,255 | 0,230,255 | 0,255,255 |
2 | 26,0,255 | 26,26,255 | 26,51,255 | 26,77,255 | 26,102,255 | 26,128,255 | 26,153,255 | 26,179,255 | 26,204,255 | 26,230,255 | 26,255,255 |
3 | 51,0,255 | 51,26,255 | 51,51,255 | 51,77,255 | 51,102,255 | 51,128,255 | 51,153,255 | 51,179,255 | 51,204,255 | 51,230,255 | 51,255,255 |
4 | 77,0,255 | 77,26,255 | 77,51,255 | 77,77,255 | 77,102,255 | 77,128,255 | 77,153,255 | 77,179,255 | 77,204,255 | 77,230,255 | 77,255,255 |
5 | 102,0,255 | 102,26,255 | 102,51,255 | 102,77,255 | 102,102,255 | 102,128,255 | 102,153,255 | 102,179,255 | 102,204,255 | 102,230,255 | 102,255,255 |
6 | 128,0,255 | 128,26,255 | 128,51,255 | 128,77,255 | 128,102,255 | 128,128,255 | 128,153,255 | 128,179,255 | 128,204,255 | 128,230,255 | 128,255,255 |
7 | 153,0,255 | 153,26,255 | 153,51,255 | 153,77,255 | 153,102,255 | 153,128,255 | 153,153,255 | 153,179,255 | 153,204,255 | 153,230,255 | 153,255,255 |
8 | 179,0,255 | 179,26,255 | 179,51,255 | 179,77,255 | 179,102,255 | 179,128,255 | 179,153,255 | 179,179,255 | 179,204,255 | 179,230,255 | 179,255,255 |
9 | 204,0,255 | 204,26,255 | 204,51,255 | 204,77,255 | 204,102,255 | 204,128,255 | 204,153,255 | 204,179,255 | 204,204,255 | 204,230,255 | 204,255,255 |
10 | 230,0,255 | 230,26,255 | 230,51,255 | 230,77,255 | 230,102,255 | 230,128,255 | 230,153,255 | 230,179,255 | 230,204,255 | 230,230,255 | 230,255,255 |
11 | 255,0,255 | 255,26,255 | 255,51,255 | 255,77,255 | 255,102,255 | 255,128,255 | 255,153,255 | 255,179,255 | 255,204,255 | 255,230,255 | 255,255,255 |
The embodiments of the present invention have been described in detail with reference to the drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge of those skilled in the art without departing from the spirit of the present invention.
Claims (9)
1. A grid point array model construction method of a gridding RGB color space is characterized by comprising the following steps: grid division is carried out on the basis of the regular hexahedron of the RGB color space, and a grid point array model of the regular hexahedron is constructed, and the method comprises the following steps:
step A, constructing a cube space corresponding to the RGB color space by using one vertex on the regular hexahedron to correspond to a black color value 0 and the other ends of three edges connected with the vertex to correspond to a red color value r, a green color value g and a blue color value B in the RGB color space respectively, and then entering the step B;
step B, aiming at the edge between the vertex corresponding to black and the vertex corresponding to red, performing m equal division to obtain m+1 points including the vertexes at two ends of the edge, and numbering 1, 2, … and m+1 for each grid point in sequence;
for the edge between the vertex corresponding to black and the vertex corresponding to green, performing n equal division to obtain n+1 points including the vertexes at two ends of the edge, and numbering each grid point as 1, 2, … and n+1 in sequence;
for the edge between the vertex corresponding to black and the vertex corresponding to blue, performing p equal division to obtain p+1 points including the vertexes at two ends of the edge, and numbering each grid point as 1, 2, … and p+1 in sequence; then enter step C;
step C, forming (m+1) (n+1) (p+1) grid points based on the division on three edges starting from black points according to a three-dimensional coordinate principle, setting grid point coordinates defined by grid point numbers as omega (i, j, k) as follows, and then entering step D;
ω(i,j,k)=[(i-1)/m,(j-1)/n,(k-1)/p];
i=1、2、…、m+1,j=1、2、…、n+1,k=1、2、…、p+1;
d, obtaining grid point array matrix expression of RGB color space as follows, and then entering step E;
e, transforming coordinate values of each grid point in RGB color space to obtain color values of each grid pointStep F is then entered as follows;
step F, each grid color value of RGB color spaceThe color matrix of the grid point array is carried into the grid point array matrix, and the color matrix of the grid point array in the RGB color space is obtained as follows:
2. the method for constructing a grid point array model of a gridding RGB color space according to claim 1, wherein: based on the color value model of any point in the cube space corresponding to the RGB color space obtained in the steps A to F, for any two points a and b in the cube space, the color value (r 1 ,g 1 ,b 1 ) Color value of point b (r 2 ,g 2 ,b 2 ) And dividing the L equal parts of the connecting line between the two points to construct a color value model of each point on the connecting line between the two points as follows:
where l=1, …, and l+1, L represents the number of each point in each position including the point a and the point b in the direction from the point a to the point b on the two-point line.
3. The method for constructing the grid point array model of the gridding RGB color space according to claim 2, wherein: c, defining a point K as a vertex corresponding to black, a point R as a vertex corresponding to red, a point G as a vertex corresponding to green and a point B as a vertex corresponding to blue in the cube space based on the color value model of any point in the cube space corresponding to the RGB color space obtained in the steps A to F, wherein the other vertex of the surface where the point K, the point R and the point G are located is a point Y corresponding to yellow, the other vertex of the surface where the point K, the point R and the point B are located is a point M corresponding to magenta, the other vertex of the surface where the point K, the point G and the point B are located is a point C corresponding to cyan, and the other vertex of the surface where the point Y, the point G and the point C are located is a point W corresponding to white;
then, starting from point K, the edgeThe color value model based on m-aliquotients and points thereon is as follows:
starting from point G, edgesThe color value model based on m-aliquotients and points thereon is as follows:
starting from point C, edgesBased on m aliquoting, each thereonThe color value model of the dots is as follows:
starting from point B, edgesThe color value model based on m-aliquotients and points thereon is as follows:
starting from point K, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
starting from point R, edgeThe color value model based on n-aliquotients for each point thereon is as follows:
starting from point M, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
starting from point B, edgesThe color value model based on n-aliquotients for each point thereon is as follows:
starting from point K, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
starting from point R, edgeThe color value model based on p-aliquotients for each point thereon is as follows:
starting from point Y, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
starting from point G, edgesThe color value model based on p-aliquotients for each point thereon is as follows:
4. a grid point array model construction method of a gridding RGB color space according to claim 3, characterized in that: based on the color value model of any point in the cube space corresponding to the RGB color space obtained in the step A to the step F, thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>Based on L-aliquotingThe color value model of each point is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
thenDiagonal +.>The color value model based on the L-score and the points thereon is as follows:
diagonal lineThe color value model based on the L-score and the points thereon is as follows:
5. the method for constructing a grid point array model in a gridded RGB color space according to claim 4, wherein: based on steps A to F, the body diagonalThe color value model based on the L-score and the points thereon is as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
body diagonalThe color value model based on the L-score and the points thereon is as follows:
6. the method for constructing a grid point array model of a gridding RGB color space according to claim 1, wherein: based on the steps A to F, defining that the vertex corresponding to black in the cube space is a point K, the vertex corresponding to red is a point R, the vertex corresponding to green is a point G, and the vertex corresponding to blue is a point B, then the other vertex of the surface where the point K, the point R, the point G are located is a point Y corresponding to yellow, the other vertex of the surface where the point K, the point R, the point B are located is a point M corresponding to magenta, the other vertex of the surface where the point K, the point G, the point B are located is a point C corresponding to cyan, and the other vertex of the surface where the point Y, the point G, the point C are located is a point W corresponding to white; according toM aliquotients, & gt>N equal,>p equal of (2), then based on i=1, …, m+1, and +.>The model matrix of the m+1 profile color values perpendicular to each other is as follows:
based on j=1, …, n+1, andthe model matrix of the vertical n+1 section color values is as follows:
based on k=1, …, p+1, andthe vertical p+1 profile color value model matrices are as follows:
7. the method for constructing a grid point array model of a gridding RGB color space according to claim 1, wherein: based on step A to step F, according toM aliquotients, & gt>N equal,>p equal of->The on-plane color value model is as follows:
the on-plane color value model is as follows:
the on-plane color value model is as follows:
the on-plane color value model is as follows:
the on-plane color value model is as follows:
the on-plane color value model is as follows:
8. an application implementation method of a grid point array model construction method based on the grid RGB color space according to any one of claims 1 to 7, characterized in that: the RGB color space grid point array model is used for obtaining RGB color space grid point colors and storing the RGB color space grid point colors in a database, and the RGB color space grid point array model is used for analyzing target colors in the following mode;
firstly, detecting to obtain RGB color detection data corresponding to a target color, and searching grid points corresponding to the RGB color detection data in a database; then, a grid point corresponding to the target color is obtained in a comparison mode by taking the grid point as an origin and presetting a radius range around the grid point; and finally, forming RGB color data corresponding to the target color by the RGB color data corresponding to the grid points.
9. The application implementation method of the grid point array model building method based on the gridding RGB color space according to claim 8, wherein the application implementation method is characterized in that: and detecting the target color by adopting a color detector to obtain RGB color detection data corresponding to the target color.
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