CN115146490A - Full-color-domain color model for blending multidimensional gridding dye liquor and chromatographic construction thereof - Google Patents

Full-color-domain color model for blending multidimensional gridding dye liquor and chromatographic construction thereof Download PDF

Info

Publication number
CN115146490A
CN115146490A CN202211075972.8A CN202211075972A CN115146490A CN 115146490 A CN115146490 A CN 115146490A CN 202211075972 A CN202211075972 A CN 202211075972A CN 115146490 A CN115146490 A CN 115146490A
Authority
CN
China
Prior art keywords
color
dye liquor
color mixing
primary
model
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
CN202211075972.8A
Other languages
Chinese (zh)
Other versions
CN115146490B (en
Inventor
刘曰兴
薛元
王立强
高洪国
***
王玉平
刘尊东
孙显强
朱文硕
谌启鑫
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Yuyue Home Textile Co Ltd
Original Assignee
Yuyue Home Textile Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Yuyue Home Textile Co Ltd filed Critical Yuyue Home Textile Co Ltd
Priority to CN202211075972.8A priority Critical patent/CN115146490B/en
Publication of CN115146490A publication Critical patent/CN115146490A/en
Application granted granted Critical
Publication of CN115146490B publication Critical patent/CN115146490B/en
Active legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Images

Classifications

    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F30/00Computer-aided design [CAD]
    • G06F30/20Design optimisation, verification or simulation
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F30/00Computer-aided design [CAD]
    • G06F30/10Geometric CAD

Landscapes

  • Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • Theoretical Computer Science (AREA)
  • General Physics & Mathematics (AREA)
  • Geometry (AREA)
  • Evolutionary Computation (AREA)
  • General Engineering & Computer Science (AREA)
  • Computer Hardware Design (AREA)
  • Computational Mathematics (AREA)
  • Mathematical Analysis (AREA)
  • Mathematical Optimization (AREA)
  • Pure & Applied Mathematics (AREA)
  • Spectrometry And Color Measurement (AREA)

Abstract

The invention relates to a multi-dimensional gridding dye liquor mixed panchromatic domain color model and a chromatogram construction thereof, which belong to the technical field of color regulation and control in the textile industry, firstly, based on gray dye liquor and each color dye liquor under the concentration of each level of dye liquor, and combining the discretization of the quality of each dye liquor, respectively constructing a multi-primary color dye liquor color mixing mode of hue gradient change, chroma gradient change and concentration gradient change, and respectively obtaining the quality, color mixing ratio and color value of a multi-primary color coupling color mixing sample under each mode; then respectively constructing a multi-primary dye liquor coupling color mixing sub-model under each mode; then respectively constructing a full-color phase color mixing model of the multi-primary color dye solution in each mode; finally, respectively constructing circular geometric models of the full color gamut color space under each mode; therefore, hue control, lightness control and chroma control can be realized in application, digital color matching of the dye liquor can be efficiently realized, and the dyeing color precision of the dye liquor is improved.

Description

Full-color-domain color model for blending multidimensional gridding dye liquor and chromatographic construction thereof
Technical Field
The invention relates to a full-color-domain color model prepared by blending multidimensional gridding dye liquor and a color spectrum construction thereof, belonging to the technical field of color regulation and control in the textile industry.
Background
In optical physics, classical color models such as RGB, HSI, lab and the like serving basic theoretical research are constructed and are mainly used for expressing the color distribution rule in a color space. In the industry and the design world, a pagoda-shaped color model and a circular color matching model are constructed and used for explaining the change rule of color hue, lightness and chroma in the color matching process.
In the industries of textile, printing and dyeing, dope dyeing and spinning, etc., dyes of different colors, dye solutions, printing inks, polymer solutions (melts) and other color materials are usually uniformly mixed in different proportions to obtain new colors of products, so that product innovation is driven by color innovation. When the product is designed, if the color of the primary color materials and the mixing ratio of the primary color materials are selected, the color of the product can be obtained through the full-color-domain color model; if the product color is designed, it can be known by the full-gamut color model which base colors and the mixing ratio of the colors of each base color can be used to obtain the set color.
The color models such as RGB, HSI, lab and the like constructed based on the physical optical principle have larger difference with the actual color matching process, and cannot be directly used for analyzing and describing the color mixing and the color change in the color matching process.
The pagoda-shaped color model and the circular color matching model constructed based on the three primary colors principle lack a digital color expression means, are too simple and are not suitable for the current digital color matching requirement.
Disclosure of Invention
The invention aims to solve the technical problem of providing a full-color-domain color model prepared by blending multi-dimensional gridding dye liquor and constructing a color spectrum of the full-color-domain color model.
The invention adopts the following technical scheme for solving the technical problems: the invention designs a full-color-domain color model for multi-dimensional gridding dye liquor mixing and a chromatogram construction thereof, which comprises the following steps:
step A, based on preset division of dye liquor concentration from low to high
Figure 45451DEST_PATH_IMAGE001
The concentration of dye liquor of each grade is preset
Figure 810407DEST_PATH_IMAGE002
The quality of the color dye respectively corresponding to the concentration of each grade of dye liquor is
Figure 518468DEST_PATH_IMAGE003
The quality of each color dye solution and the concentration of each level of dye solution corresponding to the gray dye are configured as
Figure 659862DEST_PATH_IMAGE004
The gray dye solutions are sorted according to the size of the hue angle respectively according to the dye solution concentration of each grade and the color dye solutions under the dye solution concentration of each grade; wherein,
Figure 504190DEST_PATH_IMAGE005
Figure 705627DEST_PATH_IMAGE006
Figure 900985DEST_PATH_IMAGE003
denotes the first
Figure 580490DEST_PATH_IMAGE007
Color dye corresponds to the first
Figure 544904DEST_PATH_IMAGE008
The quality of the color dye liquor of the grade dye liquor concentration;
Figure 917241DEST_PATH_IMAGE004
indicates that the grey dye corresponds to
Figure 835781DEST_PATH_IMAGE009
Quality of the colour dye liquor of the grade dye liquor concentration, and
Figure 614250DEST_PATH_IMAGE003
and
Figure 680775DEST_PATH_IMAGE004
and C, equaling, and then entering the step B;
step B, respectively measuring the quality of each color dye liquor
Figure 456970DEST_PATH_IMAGE010
According to preset discrete quantity
Figure 862806DEST_PATH_IMAGE011
Discretization is performed as follows (1):
Figure 382649DEST_PATH_IMAGE012
(1)
wherein,
Figure 823120DEST_PATH_IMAGE013
(ii) a And the quality of the grey dye liquor
Figure 35795DEST_PATH_IMAGE014
According to preset discrete quantity
Figure 928927DEST_PATH_IMAGE015
Discretization is performed as follows (2):
Figure 252461DEST_PATH_IMAGE016
(2)
wherein,
Figure 547438DEST_PATH_IMAGE017
(ii) a Obtaining multi-primary color dye liquor, and then entering the step C;
c, constructing a multi-primary dye liquor color mixing mode with hue gradient change based on the multi-primary dye liquor to obtain the quality, color mixing ratio and color value of the multi-primary binary coupling color mixing sample;
constructing a multi-primary dye liquor color mixing mode with gradient changes of hue and chroma based on the multi-primary dye liquor, and obtaining the quality, the color mixing ratio and the color value of the multi-primary ternary dual coupling color mixing sample;
constructing a multi-primary dye liquor color mixing mode with changing hue, chroma and concentration gradient based on the multi-primary dye liquor, obtaining the quality, color mixing ratio and color value of the multi-primary ternary dual coupling color mixing sample with different levels of dye liquor concentration, and then entering the step D;
d, constructing a multi-primary dye liquor binary coupling color mixing sub-model based on the quality, the color mixing ratio and the color value of the multi-primary binary coupling color mixing sample;
constructing a multi-primary-color dye-liquor ternary double coupling color mixing sub-model based on the quality, the color mixing ratio and the color value of the multi-primary-color ternary double coupling color mixing sample;
constructing a multi-primary color dye liquor ternary double coupling color mixing sub-model based on different levels of dye liquor concentrations based on the quality, color mixing ratio and color value of the multi-primary color ternary double coupling color mixing sample with different levels of dye liquor concentrations; then entering step E;
e, constructing a one-dimensional full-color phase color mixing model of the multi-primary-color dye liquor according to the multi-primary-color dye liquor binary coupling color mixing sub-model;
constructing a two-dimensional full-color-domain color mixing model of the multi-primary-color dye solution according to the multi-primary-color dye solution ternary double-coupling color mixing sub-model;
constructing a three-dimensional full-color-domain color mixing model based on the multi-primary-color dye liquor with different levels of dye liquor concentrations according to the multi-primary-color dye liquor ternary dual coupling color mixing sub-model based on different levels of dye liquor concentrations, and then entering the step F;
f, constructing a circular geometric model of a one-dimensional panchromatic domain color space according to a one-dimensional panchromatic phase color mixing model of the multi-primary color dye solution;
constructing a circular geometric model of a two-dimensional panchromatic domain color space according to a two-dimensional panchromatic domain color mixing model of the multi-primary color dye solution;
and constructing a cylindrical geometric model of a three-dimensional panchromatic domain color space according to a three-dimensional panchromatic domain color mixing model based on the multi-primary-color dye liquor with different levels of dye liquor concentration.
Compared with the prior art, the full-color-domain color model prepared by blending the multidimensional gridding dye liquor and the chromatographic construction thereof have the following technical effects:
firstly, based on gray dye liquor and each color dye liquor under the concentration of each level of dye liquor, respectively constructing a multi-primary color dye liquor color mixing mode with hue gradient change, chroma gradient change and concentration gradient change by combining discretization of the quality of each dye liquor, and respectively obtaining the quality, color mixing ratio and color value of a multi-primary color coupling color mixing sample under each mode; then, respectively constructing a multi-primary color dye liquor coupling color mixing sub-model under each mode; then respectively constructing a full-color phase color mixing model of the multi-primary color dye solution in each mode; finally, respectively constructing circular geometric models of the full color gamut color space under each mode; therefore, hue regulation and control, lightness regulation and control and chroma regulation and control can be realized in application, digital color matching of the dye liquor can be efficiently realized, and the precision and the automation level of color matching of the dye liquor are improved.
Drawings
FIG. 1 is a flow chart of a full color domain color model for multi-dimensional gridding dye liquor blending and a chromatogram construction thereof;
FIG. 2 is a schematic diagram of a full color phase mixture model of a six-primary-color dye solution according to an embodiment of the present invention;
FIG. 3 is a schematic diagram of a full color gamut color mixing model of a dye solution with three colors, one gray, and four primary colors according to a second embodiment of the present disclosure;
FIG. 4 is a schematic diagram of a six-color one-gray seven-primary color dye-liquor full-color-domain color mixing model according to a third embodiment of the present invention;
fig. 5 is a schematic diagram of a full-color-domain color mixing model of a dye solution with six colors, one gray, and seven primary colors in five concentration planes according to a fourth embodiment of the design of the present invention.
Detailed Description
The following description will explain embodiments of the present invention in further detail with reference to the accompanying drawings.
The invention designs a full-color-domain color model mixed with multi-dimensional gridding dye liquor and a chromatogram construction thereof, and the design concept is as follows:
1. the invention discloses a construction method of a one-dimensional panchromatic gamut color space model and a one-dimensional panchromatic gamut color spectrum with hue gradient change thereof;
2. the invention discloses a method for constructing a two-dimensional panchromatic gamut color space model and a two-dimensional gridding panchromatic gamut color spectrum with gradient change of hue and chroma thereof, which are disclosed by the invention;
3. constructing a ternary dual coupling color mixing mode between different color pigments and different gray pigments, and deducing a weight matrix, a mixing ratio matrix and a color matrix of all mixed samples of the three-dimensional color space model;
4. based on the grid point coordinates and the color conversion matrix of the constructed one-dimensional, two-dimensional and three-dimensional full color gamut color space model, the construction method of the one-dimensional, two-dimensional and three-dimensional full color gamut color space geometric model is invented.
Based on the above design concept, in practical application, as shown in fig. 1, the following steps a to F are specifically performed.
Step A, based on preset division of dye liquor concentration from low to high
Figure 931015DEST_PATH_IMAGE001
The concentration of dye liquor of each grade is preset
Figure 780285DEST_PATH_IMAGE002
The quality of the color dye respectively corresponding to the concentration of each grade of dye liquor is
Figure 907510DEST_PATH_IMAGE003
The quality of the gray dye corresponding to the concentration of each grade dye liquor is
Figure 322573DEST_PATH_IMAGE004
The gray dye solutions are sorted according to the size of the hue angle respectively according to the dye solution concentration of each grade and the color dye solutions under the dye solution concentration of each grade; wherein,
Figure 611472DEST_PATH_IMAGE018
Figure 479196DEST_PATH_IMAGE006
Figure 410111DEST_PATH_IMAGE003
is shown as
Figure 667962DEST_PATH_IMAGE007
The color dye corresponds to
Figure 393342DEST_PATH_IMAGE009
The quality of the color dye liquor of the grade dye liquor concentration;
Figure 748362DEST_PATH_IMAGE004
indicates that the grey dye corresponds to
Figure 217389DEST_PATH_IMAGE009
Quality of the colour dye liquor of the grade dye liquor concentration, and
Figure 341465DEST_PATH_IMAGE003
and
Figure 972167DEST_PATH_IMAGE004
equality, then proceed to step B
Based on the characteristic that the lower the concentration of the dye liquor is, the higher the color brightness value of the dye liquor is, in the multi-primary color dye liquor mixed-color system, the molar concentrations of the dye liquor in which the gray dye liquor and the color dye liquor are distributed in a gradient manner
Figure 814483DEST_PATH_IMAGE019
Corresponding to the lightness value of the dye liquor, when the concentration of the dye liquor is from low concentration to high concentration
Figure 821622DEST_PATH_IMAGE020
At each level, the lightness of the dye liquor is divided into high lightness and low lightness
Figure 800205DEST_PATH_IMAGE020
And (4) grading.
Step B, respectively aligning each quality of colour dyeing liquor
Figure 601808DEST_PATH_IMAGE010
According to preset discrete quantity
Figure 931420DEST_PATH_IMAGE021
Discretization is carried out as follows (1):
Figure 476671DEST_PATH_IMAGE012
(1)
wherein,
Figure 575339DEST_PATH_IMAGE022
(ii) a And the quality of the grey dye liquor
Figure 813423DEST_PATH_IMAGE014
According to preset discrete quantity
Figure 364752DEST_PATH_IMAGE023
Discretization is performed as follows (2):
Figure 713694DEST_PATH_IMAGE016
(2)
wherein,
Figure 678587DEST_PATH_IMAGE024
(ii) a Namely obtaining the multi-primary color dye liquor, and then entering the step C.
And C, aiming at the multi-primary dye liquor mixed color system, carrying out binary combination pairing on the multi-primary dye liquor with the same concentration to obtain
Figure 821993DEST_PATH_IMAGE025
The two primary colors are mixed with the dye solution, and then the two primary colors are coupled and mixed with each other based on the discretization weight, so that the dye solution can be obtained
Figure 595039DEST_PATH_IMAGE026
A multi-primary dye liquor color mixing mode with hue gradient change is constructed by the mixed sample;
based on the multi-primary dye solution, a multi-primary dye solution color mixing mode with hue gradient change is constructed, and the quality, the color mixing ratio and the color value of the multi-primary binary coupling color mixing sample are obtained according to the following processing.
Aiming at the concentration of the dye liquor in each grade, two kinds of color dye liquor are sequentially selected from the sequencing of the multi-base color dye liquor represented by the formula (1) for combined color mixing as follows:
Figure 747671DEST_PATH_IMAGE027
(3);
wherein,
Figure 555353DEST_PATH_IMAGE028
is shown as
Figure 135239DEST_PATH_IMAGE009
Concentration of the dye liquor of grade
Figure 926739DEST_PATH_IMAGE029
The discrete mass of the seed color dye,
Figure 351904DEST_PATH_IMAGE030
is shown as
Figure 14092DEST_PATH_IMAGE009
Under the concentration of the graded dye liquor
Figure 30459DEST_PATH_IMAGE031
Discrete masses of the colored dyes.
Performing binary coupling color mixing according to the formula (3) to obtain
Figure 778097DEST_PATH_IMAGE032
A mixed color sample corresponding to the binary coupled mixed color, each mixed color sample
Figure 6953DEST_PATH_IMAGE033
The following were used:
Figure 54806DEST_PATH_IMAGE034
(4);
Figure 743538DEST_PATH_IMAGE033
is shown as
Figure 211429DEST_PATH_IMAGE009
The quality of a color mixing sample corresponding to binary coupling color mixing under the concentration of the level dye liquor;
according to formula (4), and
Figure 243976DEST_PATH_IMAGE009
color mixing ratio of color mixing sample corresponding to binary coupling color mixing under level dye liquor concentration
Figure 134616DEST_PATH_IMAGE035
Obtaining
Figure 961627DEST_PATH_IMAGE036
The color mixing ratio of each color dye solution in each color mixing sample is as follows:
Figure 683857DEST_PATH_IMAGE037
(5);
and according to
Figure 520095DEST_PATH_IMAGE038
The update formula (5) is as follows:
Figure 276961DEST_PATH_IMAGE039
(6);
Figure 540452DEST_PATH_IMAGE040
is shown as
Figure 484399DEST_PATH_IMAGE041
The quality of the mixed color sample corresponding to the binary coupling mixed color under the concentration of the level dye solution is
Figure 858749DEST_PATH_IMAGE042
The color mixing ratio of the colored dye liquor of (1),
Figure 470121DEST_PATH_IMAGE043
is shown as
Figure 904513DEST_PATH_IMAGE041
The quality of the mixed color sample corresponding to the binary coupling mixed color under the concentration of the level dye solution is
Figure 601336DEST_PATH_IMAGE044
The color mixture ratio of the colored dye solution;
according to the colour value of binary colour dyeing liquor
Figure 513798DEST_PATH_IMAGE045
Figure 979676DEST_PATH_IMAGE046
Obtained with respect to formula (4)
Figure 850549DEST_PATH_IMAGE047
The color values of the mixed color samples are respectively as follows:
Figure 300247DEST_PATH_IMAGE048
(7);
Figure 750820DEST_PATH_IMAGE049
is shown as
Figure 348503DEST_PATH_IMAGE041
And color values of the color mixing sample corresponding to binary coupling color mixing under the concentration of the graded dye solution.
Aiming at the multi-primary dye liquor mixed color system, the multi-primary dye liquor with the same dye liquor concentration is subjected to ternary combination pairing to obtain
Figure 124698DEST_PATH_IMAGE050
And (3) grouping the three-primary-color mixed dye solution, and performing ternary dual coupling color mixing based on the discretization weight, thereby constructing a multi-primary-color dye solution color mixing mode with gradient change of color phase and chroma.
Based on the multi-primary dye liquor, a multi-primary dye liquor color mixing mode with gradient changes of hue and chroma is established, and the quality, the color mixing ratio and the color value of the multi-primary ternary dual coupling color mixing sample are obtained according to the following processing.
Respectively aiming at the concentration of each level of dye liquor, sequentially selecting two color dye liquors from the sequence of the multi-base color dye liquor represented by the formula (1), and combining and selecting the gray dye liquors with the same concentration of the dye liquor from the gray dye liquors represented by the formula (2) to perform combined color mixing as follows:
Figure 264955DEST_PATH_IMAGE051
(8);
wherein,
Figure 784798DEST_PATH_IMAGE052
denotes the first
Figure 490848DEST_PATH_IMAGE041
Under the concentration of the graded dye liquor
Figure 437944DEST_PATH_IMAGE053
The discrete mass of the seed color dye,
Figure 331076DEST_PATH_IMAGE054
is shown as
Figure 654610DEST_PATH_IMAGE041
Concentration of the dye liquor of grade
Figure 949588DEST_PATH_IMAGE055
The discrete mass of the seed color dye,
Figure 802006DEST_PATH_IMAGE056
is shown as
Figure 182434DEST_PATH_IMAGE041
Discrete mass of grey dye at the level dye liquor concentration;
performing ternary double coupling color mixing according to the formula (8) to obtain
Figure 44080DEST_PATH_IMAGE057
The quality of each mixed color sample is determined by the quality of the mixed color sample corresponding to the ternary dual coupling mixed color
Figure 193563DEST_PATH_IMAGE058
The following were used:
Figure 482462DEST_PATH_IMAGE059
(9);
Figure 350186DEST_PATH_IMAGE060
denotes the first
Figure 15523DEST_PATH_IMAGE041
The quality of a color mixing sample corresponding to ternary double coupling color mixing under the concentration of the level dye solution;
according to formula (9), and
Figure 742215DEST_PATH_IMAGE041
color mixing ratio of color mixing sample corresponding to ternary double coupling color mixing under level dye liquor concentration
Figure 467595DEST_PATH_IMAGE061
Obtaining
Figure 557036DEST_PATH_IMAGE062
The color mixing ratio of each dye solution in each color mixing sample is as follows:
Figure 121003DEST_PATH_IMAGE063
(10);
Figure 743615DEST_PATH_IMAGE064
is shown as
Figure 141360DEST_PATH_IMAGE041
The quality of the mixed color sample corresponding to ternary double coupling mixed color under the concentration of the level dye solution is
Figure 216632DEST_PATH_IMAGE065
The color mixing ratio of the gray dye liquor,
Figure 725236DEST_PATH_IMAGE066
denotes the first
Figure 202354DEST_PATH_IMAGE041
The quality of the mixed color sample corresponding to ternary double coupling mixed color under the concentration of the level dye solution is
Figure 505422DEST_PATH_IMAGE067
The color mixture ratio of the colored dye solution;
Figure 67990DEST_PATH_IMAGE068
denotes the first
Figure 114706DEST_PATH_IMAGE041
The quality of the mixed color sample corresponding to ternary double coupling mixed color under the concentration of the level dye solution is
Figure 446330DEST_PATH_IMAGE069
The color mixture ratio of the colored dye solution;
according to the colour values of two colour dyeing liquors
Figure 185878DEST_PATH_IMAGE070
Figure 235743DEST_PATH_IMAGE071
And color value of the grey dye liquor
Figure 910368DEST_PATH_IMAGE072
Obtained with respect to formula (9)
Figure 362078DEST_PATH_IMAGE073
The color values of the mixed color samples are respectively as follows:
Figure 6948DEST_PATH_IMAGE074
(11);
Figure 544109DEST_PATH_IMAGE075
is shown as
Figure 198206DEST_PATH_IMAGE076
And (3) color values of color mixing samples corresponding to ternary double coupling color mixing under the concentration of the level dye solution.
And (4) constructing a multi-primary dye liquor color mixing mode with changing hue, chroma and concentration gradient based on the multi-primary dye liquor, processing as follows to obtain the quality, color mixing ratio and color value of the multi-primary ternary dual coupling color mixing sample with different levels of dye liquor concentration, and then entering the step D.
Aiming at the multi-primary color dye liquor color mixing system based on
Figure 504423DEST_PATH_IMAGE077
The multi-primary color dye liquids corresponding to different concentration surfaces are subjected to ternary combination pairing, and each concentration surface can be obtained
Figure 585773DEST_PATH_IMAGE078
And (3) grouping three-primary color mixed dye liquor, and carrying out ternary double coupling color mixing based on the discretization weight, thereby constructing a multi-primary color dye liquor color mixing mode with gradient changes of lightness, hue and chroma.
Based on the color dye solutions under the dye solution concentrations of all levels, two color dye solutions are selected from the dye solution concentrations of different levels, and the gray dye solutions are selected from the gray dye solutions represented by the formula (2) to carry out combined color mixing as follows:
Figure 344651DEST_PATH_IMAGE079
(12);
wherein,
Figure 536860DEST_PATH_IMAGE080
Figure 963162DEST_PATH_IMAGE081
Figure 215414DEST_PATH_IMAGE082
Figure 461588DEST_PATH_IMAGE083
denotes the first
Figure 457488DEST_PATH_IMAGE084
Discrete mass of grey dye at the level dye liquor concentration,
Figure 472717DEST_PATH_IMAGE085
denotes the first
Figure 161450DEST_PATH_IMAGE086
Under the concentration of the graded dye liquor
Figure 894919DEST_PATH_IMAGE087
The discrete mass of the seed color dye,
Figure 682792DEST_PATH_IMAGE088
is shown as
Figure 818107DEST_PATH_IMAGE089
Concentration of the dye liquor of grade
Figure 412161DEST_PATH_IMAGE090
A discrete mass of seed color dye;
performing ternary double coupling color mixing according to formula (12) to obtain
Figure 632927DEST_PATH_IMAGE091
The quality of each mixed color sample is determined by the quality of the mixed color sample corresponding to the ternary dual coupling mixed color
Figure 970630DEST_PATH_IMAGE092
The following were used:
Figure 960452DEST_PATH_IMAGE093
(13);
Figure 725407DEST_PATH_IMAGE092
representing the quality of a color mixing sample corresponding to ternary double coupling color mixing under different levels of dye liquor concentration; according to the formula (13) and the color mixing ratio of the color mixing sample corresponding to the ternary double coupling color mixing under different levels of dye liquor concentration
Figure 167890DEST_PATH_IMAGE094
Obtaining
Figure 309284DEST_PATH_IMAGE095
The color mixing ratio of each dye solution in each color mixing sample is as follows:
Figure 153612DEST_PATH_IMAGE096
(14)
Figure 823890DEST_PATH_IMAGE097
the quality of the mixed color sample corresponding to ternary double coupling mixed color under different levels of dye liquor concentration is shown as
Figure 19248DEST_PATH_IMAGE098
The color mixing ratio of the gray dye liquor,
Figure 964332DEST_PATH_IMAGE099
the quality of the mixed color sample corresponding to ternary double coupling mixed color under different levels of dye liquor concentration is shown as
Figure 928746DEST_PATH_IMAGE100
The color mixture ratio of the colored dye solution;
Figure 35505DEST_PATH_IMAGE101
the quality of the mixed color sample corresponding to ternary double coupling mixed color under different levels of dye liquor concentration is shown as
Figure 983738DEST_PATH_IMAGE102
The color mixing ratio of the colored dye liquor;
according to the colour values of two colour dyeing liquors
Figure 213074DEST_PATH_IMAGE103
Figure 766415DEST_PATH_IMAGE104
And color value of the grey dye liquor
Figure 309654DEST_PATH_IMAGE105
Obtained with respect to formula (13)
Figure 214025DEST_PATH_IMAGE106
The color values of the mixed color samples are respectively as follows:
Figure 235333DEST_PATH_IMAGE107
(15);
Figure 174339DEST_PATH_IMAGE108
and the color values of the color mixing samples corresponding to the ternary double coupling color mixing under different levels of dye liquor concentration are represented.
A gridding color mixing system of multi-primary color dye solution is prepared by
Figure 622900DEST_PATH_IMAGE109
The dye liquor molar concentration of each color dye liquor and one gray dye liquor is divided into
Figure 14567DEST_PATH_IMAGE110
At each level, assumed on each level
Figure 839566DEST_PATH_IMAGE109
Each colour dye liquor has an equal lightness value to 1 grey dye liquor.
If based on the equal concentration surface, will
Figure 633078DEST_PATH_IMAGE109
The color dye solutions are combined pairwise and then subjected to binary coupling color mixing according to the discretization weight, so that the color dye solutions with multiple primary colors on a certain equal concentration surface can be obtained
Figure 252541DEST_PATH_IMAGE111
One-dimensional color mixing model of grid points and
Figure 131504DEST_PATH_IMAGE111
full color chromatography of individual phase gradients;
if based on isoconcentration planes, from
Figure 760194DEST_PATH_IMAGE109
Two groups of color dye solutions and a gray dye solution are sequentially selected from the color dye solutions to be combined and then subjected to ternary and dual coupling color mixing according to the discretized weight, so that the multi-primary color dye solution on a certain equal-concentration surface can be obtained
Figure 142633DEST_PATH_IMAGE112
Two-dimensional color mixture model of individual grid points and
Figure 198576DEST_PATH_IMAGE112
gradient panchromatic chromatogram;
from each isoconcentration plane if based on each isoconcentration plane
Figure 564836DEST_PATH_IMAGE109
Two groups of color dye solutions and a gray dye solution are sequentially selected from the color dye solutions to be combined, and then ternary double-coupling color mixing is carried out according to the discretized weight, so that the multi-primary color dye solution on each equal-concentration surface can be obtained
Figure 188760DEST_PATH_IMAGE113
Three-dimensional color mixing model of individual grid points and
Figure 691285DEST_PATH_IMAGE113
panchromatic chromatography of individual gradients.
And D, constructing a multi-primary dye liquor binary coupling color mixing sub-model based on the quality, the color mixing ratio and the color value of the multi-primary binary coupling color mixing sample as follows:
(1) the quality matrix of the multi-primary color dye liquor binary coupling color mixing sub-model is as follows:
Figure 918130DEST_PATH_IMAGE114
(16);
Figure 506106DEST_PATH_IMAGE115
denotes the first
Figure 709554DEST_PATH_IMAGE116
The quality of a color mixing sample corresponding to binary coupling color mixing under the concentration of the level dye liquor;
(2) the color mixing ratio matrix of the multi-primary color dye liquor binary coupling color mixing submodel is as follows:
Figure 833630DEST_PATH_IMAGE117
(17);
Figure 729911DEST_PATH_IMAGE118
denotes the first
Figure 306648DEST_PATH_IMAGE116
The color mixing ratio of the color mixing sample corresponding to binary coupling color mixing under the concentration of the level dye liquor;
(3) the color matrix of the multi-primary color dye liquor binary coupling color mixing submodel is as follows:
Figure 313787DEST_PATH_IMAGE119
(18);
Figure 292370DEST_PATH_IMAGE120
is shown as
Figure 93972DEST_PATH_IMAGE116
And color values of the color mixing sample corresponding to the binary coupling color mixing under the concentration of the graded dye solution.
Based on the quality, the color mixing ratio and the color value of the multi-primary-color ternary double-coupling color mixing sample, the establishment of the multi-primary-color dye solution ternary double-coupling color mixing sub-model comprises the following steps:
(1) the quality matrix of the multi-primary-color dye liquor ternary double-coupling color mixing sub-model is as follows:
Figure 423585DEST_PATH_IMAGE121
(27);
Figure 703256DEST_PATH_IMAGE122
denotes the first
Figure 67504DEST_PATH_IMAGE123
The quality of a color mixing sample corresponding to ternary double coupling color mixing under the concentration of the level dye solution;
(2) the color mixing ratio matrix of the multi-primary color dye liquor ternary double coupling color mixing submodel is as follows:
Figure 305587DEST_PATH_IMAGE124
(28);
Figure 856916DEST_PATH_IMAGE125
denotes the first
Figure 205858DEST_PATH_IMAGE126
The color mixing ratio of the color mixing sample corresponding to the ternary double coupling color mixing under the concentration of the level dye solution;
(3) the color matrix of the multi-primary color dye liquor ternary double coupling color mixing submodel is as follows:
Figure 905173DEST_PATH_IMAGE127
(29);
Figure 314157DEST_PATH_IMAGE128
is shown as
Figure 618362DEST_PATH_IMAGE129
And (3) color values of the color mixing samples corresponding to the ternary double coupling color mixing under the concentration of the graded dye solution.
Based on the quality, the color mixing ratio and the color value of the multi-primary-color ternary double-coupling color mixing sample with different levels of dye liquor concentrations, the multi-primary-color ternary double-coupling color mixing sub-model based on different levels of dye liquor concentrations is constructed as follows:
as can be seen from the formulas (12) and (13), the dye solutions having different concentrations have different concentrations for each concentration level
Figure 505415DEST_PATH_IMAGE130
Group-element dual-coupling color mixing submodel, each submodel including
Figure 313096DEST_PATH_IMAGE131
A grid point corresponds to
Figure 361824DEST_PATH_IMAGE132
On each concentration plane, can be constructed to include
Figure 153325DEST_PATH_IMAGE130
A two-dimensional submodel, then
Figure 844069DEST_PATH_IMAGE129
Layer one
Figure 771836DEST_PATH_IMAGE133
Sub-models of groups include
Figure 257044DEST_PATH_IMAGE131
A plurality of grid points.
(1) The quality matrix of the multi-primary color dye liquor ternary double-coupling color mixing sub-model based on different levels of dye liquor concentrations is as follows:
Figure 270262DEST_PATH_IMAGE134
(40);
Figure 764697DEST_PATH_IMAGE135
representing the quality of a color mixing sample corresponding to ternary double coupling color mixing under different levels of dye liquor concentration;
(2) the color mixing ratio matrix of the multi-primary color dye liquor ternary double-coupling color mixing submodel based on different levels of dye liquor concentration is as follows:
Figure 546970DEST_PATH_IMAGE136
(41);
Figure 203080DEST_PATH_IMAGE137
representing the color mixing ratio of the color mixing sample corresponding to the ternary double coupling color mixing under different levels of dye liquor concentration;
(3) the color matrix of the multi-primary color dye liquor ternary double coupling color mixing sub-model based on different levels of dye liquor concentrations is as follows:
Figure 438014DEST_PATH_IMAGE138
(42);
Figure 736140DEST_PATH_IMAGE139
and the color values of the color mixing samples corresponding to the ternary double coupling color mixing under different levels of dye liquor concentration are represented.
Then step E is entered.
And E, in a multi-primary color dye solution system with the same level of molar concentration, selecting different color dye solutions to carry out binary coupling color mixing, if the hue gradient obtained by all the binary coupling color mixing is changed into one-dimensional color spectrums which are sequentially arranged, equivalently, connecting the color matrixes of all the mixed samples end to carry out merging and expansion, and obtaining the color spectrum with the hue gradient change in the full color domain range. On the basis, a weight matrix, a mixing ratio matrix and a color matrix of all mixed samples are deduced, and a one-dimensional full color gamut color space model and a one-dimensional full color gamut color spectrum with hue gradient change are constructed.
At the same molarity level, selecting molarity of the same level
Figure 361201DEST_PATH_IMAGE109
The color matching system is composed of multiple base color dye solutions, two dye solutions are sequentially selected from the color matching system to carry out binary coupling color mixing to obtain the product
Figure 220835DEST_PATH_IMAGE109
The group binary coupling color mixing submodel can be obtained by discretizing the weight of the binary dye solution and carrying out binary coupling color mixing
Figure 176022DEST_PATH_IMAGE140
A color mixing grid point and a color mixing sample value
Figure 12260DEST_PATH_IMAGE140
Individual grid point and dither color value, a constructable representation
Figure 503546DEST_PATH_IMAGE109
The multi-primary color dye liquor binary coupling color mixing mode and the mathematical model of the color spectrum thereof can be constructed and expressed at the same time
Figure 767037DEST_PATH_IMAGE109
The multi-primary color dye solution binary coupling mixed color sample grid point coordinates and the geometric model of the color spectrum thereof are provided.
According to the multi-primary color dye liquor binary coupling color mixing sub-model, a one-dimensional full-color phase color mixing model of the multi-primary color dye liquor is constructed as follows.
Order to
Figure 976564DEST_PATH_IMAGE141
Is provided with
Figure 350914DEST_PATH_IMAGE142
All the expressions (16), (17) and (18) correspond to
Figure 962286DEST_PATH_IMAGE143
The quality, color mixing ratio, and color of the binary coupled color mixture sample are measured by 1 line
Figure 396678DEST_PATH_IMAGE144
The matrix of columns is represented as follows:
Figure 93501DEST_PATH_IMAGE145
(19);
Figure 271541DEST_PATH_IMAGE146
(20);
Figure 737420DEST_PATH_IMAGE147
(21);
the compounds of the formulae (16), (17) and (18)
Figure 342714DEST_PATH_IMAGE148
And expanding to obtain a quality matrix of the one-dimensional full-hue gridding color mixing model as follows:
Figure 792412DEST_PATH_IMAGE149
(22);
the color mixing ratio matrix of the one-dimensional full-hue gridding color mixing model is obtained as follows:
Figure 21748DEST_PATH_IMAGE150
(23);
the color matrix of the one-dimensional full-hue gridding color mixing model is obtained as follows:
Figure 575089DEST_PATH_IMAGE151
(24);
namely, a one-dimensional full-color phase color mixing model of the multi-primary color dye solution constructed based on the multi-primary color dye solution binary coupling color mixing is obtained.
Based on the formulas (19), (20) and (21), the dyeing of multiple primary colors is carried out
Figure 351284DEST_PATH_IMAGE109
One-dimensional full color gamut color space constructed by group binary coupling color mixing
Figure 22699DEST_PATH_IMAGE152
The quality matrix, the color mixing ratio matrix and the color matrix of all mixed color samples are given by the grid points, namely the equations (22), (23) and (24), so that a mathematical model of a one-dimensional full-hue color space constructed based on the multi-primary dye liquor binary coupling color mixing is obtained.
According to the multi-primary-color dye liquor ternary double-coupling color mixing sub-model, a two-dimensional full-color-domain color mixing model of the multi-primary-color dye liquor is constructed as follows.
Two color dye liquids and one gray dye liquid are selected from a multi-primary dye liquid system with the same level of molar concentration to carry out ternary double coupling color mixing, if two-dimensional gridding chromatograms with hues and chroma gradient changes, which are obtained by all the ternary double coupling color mixing, are sequentially arranged, namely the color matrixes of all mixed samples are connected end to be merged and expanded, and the chromatograms with hues and chroma gradient changes are obtained in a full color domain range. On the basis, a weight matrix, a mixing ratio matrix and a color matrix of all mixed samples are deduced, and a two-dimensional plane full color gamut color space model and a two-dimensional full color gamut color spectrum with gradient changes of hue and chroma are constructed;
selecting the same order of molarity
Figure 542542DEST_PATH_IMAGE109
A color matching system is composed of multi-base color dye liquor and a gray dye liquor, and two dye liquors and the gray dye liquor are sequentially selected from the color dye liquor to carry out ternary double coupling color mixing
Figure 717433DEST_PATH_IMAGE109
The group-element double-coupling color mixing sub-model is obtained by discretizing the weight of the ternary dye solution and performing the ternary double-coupling color mixing
Figure 930109DEST_PATH_IMAGE153
A color mixing grid point and a color mixing sample value
Figure 823241DEST_PATH_IMAGE153
Individual grid point and dither color value, a constructable representation
Figure 146775DEST_PATH_IMAGE109
The method is characterized in that a multi-primary-color dye liquor ternary double-coupling color mixing mode and a mathematical model of the color spectrum thereof are adopted, and meanwhile, expression can be constructed
Figure 176173DEST_PATH_IMAGE109
Multi-primary-color dye liquor ternary dual-coupling color mixing sample netGrid point coordinates and geometric models of their chromatograms.
Based on the formulas (13), (14) and (15), it can be seen that the dye solutions of multiple primary colors are respectively used for the dye solution concentrations of each grade
Figure 559750DEST_PATH_IMAGE109
The group-element dual-coupling color mixing submodel comprises
Figure 940178DEST_PATH_IMAGE154
A grid point of passing
Figure 801823DEST_PATH_IMAGE155
Line for mobile communication terminal
Figure 951307DEST_PATH_IMAGE156
A matrix representation of the columns, and
Figure 505785DEST_PATH_IMAGE109
the group-ternary dual-coupling color mixing gridding submodel is spliced and combined in sequence from end to end corresponding to each line to obtain the grey dye solution
Figure 107930DEST_PATH_IMAGE157
And color dye liquor
Figure 773267DEST_PATH_IMAGE158
Forming a multi-primary color panchromatic domain gridding color mixing model;
order to
Figure 31118DEST_PATH_IMAGE159
Then:
Figure 490918DEST_PATH_IMAGE160
(30);
when in use
Figure 845938DEST_PATH_IMAGE161
When the temperature of the water is higher than the set temperature,
Figure 816430DEST_PATH_IMAGE162
,
Figure 173462DEST_PATH_IMAGE163
and is and
Figure 804164DEST_PATH_IMAGE164
when in use
Figure 646480DEST_PATH_IMAGE165
When the temperature of the water is higher than the set temperature,
Figure 653619DEST_PATH_IMAGE166
,
Figure 632202DEST_PATH_IMAGE167
and is made of
Figure 699384DEST_PATH_IMAGE168
When the temperature is higher than the set temperature
Figure 763417DEST_PATH_IMAGE169
When the temperature of the water is higher than the set temperature,
Figure 308668DEST_PATH_IMAGE170
,
Figure 407336DEST_PATH_IMAGE171
and is and
Figure 379840DEST_PATH_IMAGE172
when in use
Figure 931170DEST_PATH_IMAGE173
When the temperature of the water is higher than the set temperature,
Figure 280111DEST_PATH_IMAGE174
,
Figure 245005DEST_PATH_IMAGE175
and is and
Figure 217771DEST_PATH_IMAGE176
integrating all the mixed color samples into a matrix
Figure 754932DEST_PATH_IMAGE177
And, and:
Figure 143450DEST_PATH_IMAGE178
(31);
based on the above
Figure 449666DEST_PATH_IMAGE179
Obtained by double coupling and color mixing of group-three dye solutions
Figure 531017DEST_PATH_IMAGE180
Color mixture sample, and construction
Figure 555474DEST_PATH_IMAGE155
Line for mobile communication terminal
Figure 747683DEST_PATH_IMAGE181
A gridding matrix of columns, thereby constructing a full color gamut gridding color mixing model, and developing the formula (27) to obtain the full color gamut gridding color mixing model
Figure 908406DEST_PATH_IMAGE155
Line for mobile communication terminal
Figure 160658DEST_PATH_IMAGE181
The column quality matrix is as follows, namely the quality matrix of the two-dimensional panchromatic range color mixing model of the multi-primary color dye solution;
Figure 672411DEST_PATH_IMAGE182
(32);
and (3) obtaining a color mixing ratio matrix of a two-dimensional full-color-domain color mixing model of the multi-primary-color dye solution corresponding to the formula (28):
Figure 668311DEST_PATH_IMAGE183
(33);
or:
Figure 683540DEST_PATH_IMAGE184
(34);
corresponding to equation (29), a color matrix of a two-dimensional full-color-domain color mixture model of the multi-primary-color dye solution is obtained:
Figure 106694DEST_PATH_IMAGE185
(35);
or:
Figure 840163DEST_PATH_IMAGE186
(36);
namely, a two-dimensional full-color-domain color mixing model of the multi-primary dye solution constructed based on the multi-primary dye solution ternary dual coupling color mixing sub-model is obtained.
As can be seen from the formula (30), the panchromatic gamut gridding color mixing model constructed by the multi-primary colors has the same structure
Figure 628036DEST_PATH_IMAGE187
And (4) obtaining the mixing proportion of the dye liquor of the mixed sample corresponding to the grid points through the coordinates of the grid points (mixed sample). Thus, expression of hue, lightness, and chroma of all mixed samples (grid points) in the full color gamut is realized by equation (16).
According to the multi-primary color dye liquor ternary double coupling color mixing sub-model based on different levels of dye liquor concentrations, a three-dimensional full-color-domain color mixing model based on the multi-primary color dye liquor with different levels of dye liquor concentrations is constructed as follows.
In the multi-primary color dye liquor color mixing system, aiming at multi-primary color dye liquor under different dye liquor concentrations, the gradient change of the dye liquor concentration is used as a newly added dimension to expand the multi-primary color dye liquor into a three-dimensional full-color-domain color model on the basis of a two-dimensional plane full-color-domain color model under the same dye liquor concentration level, namely two groups of color dye liquor and one group of gray dye liquor are selected to carry out ternary coupling color mixing under each dye liquor concentration level, three-dimensional gridding chromatograms with gradient change obtained by all ternary coupling color mixing are sequentially arranged, namely the color matrixes of all mixed samples are connected end to be merged and expanded, and the three-dimensional chromatograms with gradient changes of hue, chroma and lightness are obtained in a full-color-domain range. On the basis, a weight matrix, a mixing ratio matrix and a color matrix of all mixed samples are deduced, and a three-dimensional panchromatic color model and a three-dimensional panchromatic color spectrum with gradient changes of hue, chroma and lightness are constructed.
The dye liquor concentration of the multi-primary color dye liquor is set as
Figure 497771DEST_PATH_IMAGE188
On the surface of each concentration level
Figure 91826DEST_PATH_IMAGE189
The color matching system corresponding to the concentration is composed of two kinds of color dye liquor and one kind of grey dye liquor, and three-element double coupling color mixing is performed on the concentration plane of each grade by sequentially selecting two kinds of color dye liquor and one kind of grey dye liquor
Figure 312592DEST_PATH_IMAGE190
The group-element dual-coupling color mixing submodel is the first one
Figure 384715DEST_PATH_IMAGE129
Layer one
Figure 640116DEST_PATH_IMAGE191
The combination of the three-element double-coupling color mixing submodels can obtain a two-dimensional full color gamut color mixing model on the concentration surface and comprises
Figure 405072DEST_PATH_IMAGE192
A grid of points. On all concentration planes
Figure 113134DEST_PATH_IMAGE193
The two-dimensional panchromatic domain color mixing model is combined to obtain a color mixture model containing
Figure 254528DEST_PATH_IMAGE194
A three-dimensional full color domain color model constructed by the grid points is obtained
Figure 98856DEST_PATH_IMAGE194
And (3) further constructing a mathematical model and a cylindrical geometric model of the gridding color mixing of the multi-primary dye liquor containing all the dye liquor concentrations on the basis of the color values of the grid points, and giving a three-dimensional full color gamut chromatogram with gradient changes of hue, chroma and lightness.
The first of the multi-primary dyeing solutions at different levels of dye solution concentration based on formula (40)
Figure 34713DEST_PATH_IMAGE195
Layer one
Figure 230071DEST_PATH_IMAGE196
Group-ternary double-coupling color mixing is constructed
Figure 909576DEST_PATH_IMAGE197
Sub-models, each sub-model comprising
Figure 873990DEST_PATH_IMAGE198
Individual grid points, should work
Figure 246328DEST_PATH_IMAGE195
Layer one
Figure 663403DEST_PATH_IMAGE196
Of group (a)
Figure 158318DEST_PATH_IMAGE199
Line for mobile communication terminal
Figure 242817DEST_PATH_IMAGE200
Matrix representation of the columns, will all
Figure 520477DEST_PATH_IMAGE193
Of a layer
Figure 424848DEST_PATH_IMAGE190
The group-ternary dual-coupling color-mixing gridding submodel is spliced and combined in sequence from head to tail corresponding to each line to obtain gray dye solution
Figure 446156DEST_PATH_IMAGE201
And color dye liquor
Figure 119583DEST_PATH_IMAGE202
Forming a multi-primary color panchromatic domain gridding color mixing model;
order to
Figure 833723DEST_PATH_IMAGE203
And then:
Figure 225390DEST_PATH_IMAGE204
(43);
when in use
Figure 784810DEST_PATH_IMAGE161
When the temperature of the water is higher than the set temperature,
Figure 578322DEST_PATH_IMAGE162
,
Figure 463364DEST_PATH_IMAGE163
and is and
Figure 76748DEST_PATH_IMAGE205
when in use
Figure 971017DEST_PATH_IMAGE206
When the temperature of the water is higher than the set temperature,
Figure 619036DEST_PATH_IMAGE166
,
Figure 143820DEST_PATH_IMAGE167
and is made of
Figure 510079DEST_PATH_IMAGE207
When in use
Figure 665162DEST_PATH_IMAGE208
When the temperature of the water is higher than the set temperature,
Figure 167688DEST_PATH_IMAGE170
,
Figure 394532DEST_PATH_IMAGE171
and is made of
Figure 248087DEST_PATH_IMAGE209
When in use
Figure 749738DEST_PATH_IMAGE210
When the temperature of the water is higher than the set temperature,
Figure 372349DEST_PATH_IMAGE174
,
Figure 504516DEST_PATH_IMAGE175
and is and
Figure 845367DEST_PATH_IMAGE211
integrating all the mixed color samples into a matrix
Figure 353971DEST_PATH_IMAGE212
The following were used:
Figure 831089DEST_PATH_IMAGE213
(44);
based on formula (44), under different levels of dye liquor concentration
Figure 134156DEST_PATH_IMAGE214
Layer(s)
Figure 696725DEST_PATH_IMAGE215
Obtained by double coupling and color mixing of group-three dye solutions
Figure 540178DEST_PATH_IMAGE216
Color mixing sample construction
Figure 373267DEST_PATH_IMAGE217
An
Figure 345771DEST_PATH_IMAGE218
Line of
Figure 395636DEST_PATH_IMAGE219
A gridding matrix of columns, thereby constructing a full color gamut gridding color mixing model, and expanding the formula (44) to obtain the full color gamut gridding color mixing model
Figure 257761DEST_PATH_IMAGE220
An
Figure 709471DEST_PATH_IMAGE221
Line of
Figure 619920DEST_PATH_IMAGE222
Column quality matrix:
Figure 891502DEST_PATH_IMAGE223
(45);
corresponding to the formula (44), under different levels of dye liquor concentration, obtaining a color mixing ratio matrix of the three-dimensional full-color-gamut gridding color mixing model as follows:
Figure 545599DEST_PATH_IMAGE224
(46);
or:
Figure 851816DEST_PATH_IMAGE225
(47);
corresponding to the formula (46), under different levels of dye liquor concentration, the color matrix of the two-dimensional full color gamut gridding color mixing model is obtained as follows:
Figure 933166DEST_PATH_IMAGE226
(48);
or:
Figure 957623DEST_PATH_IMAGE227
(49);
namely, a three-dimensional full-color-domain color mixing model based on the multi-primary-color dye liquor with different levels of dye liquor concentration is constructed, and then the step F is carried out.
As can be seen from the formula (43), the full-color-domain gridding color mixture model constructed from multiple primary colors has a common structure
Figure 149832DEST_PATH_IMAGE228
And (4) obtaining the mixing proportion of the dye liquor of the mixed sample corresponding to the grid points through the coordinates of the grid points (mixed sample). In this way, expression of hue, brightness, and chroma of all mixed samples (grid points) in the full color gamut is realized by the formula (49).
And F, constructing a circular geometric model of a one-dimensional panchromatic domain color space according to the one-dimensional panchromatic phase color mixing model of the multi-primary color dye solution by the following operation.
Respectively aiming at the dye liquor concentration of each grade according to
Figure 310555DEST_PATH_IMAGE229
Respective mixed color samples of respective grid points
Figure 562807DEST_PATH_IMAGE230
The hue angle is arranged in sequence and evenly distributed on the circumference with the radius of 1, and each color value is set
Figure 808981DEST_PATH_IMAGE231
Polar angle of grid point of
Figure 70460DEST_PATH_IMAGE232
Polar radius of
Figure 852734DEST_PATH_IMAGE233
Then each color value
Figure 774422DEST_PATH_IMAGE234
The polar coordinates of the grid points of (a) are:
Figure 242312DEST_PATH_IMAGE235
(25);
according to
Figure 764606DEST_PATH_IMAGE236
Then, the color values of the grid points are obtained by equations (5) and (6)
Figure 899921DEST_PATH_IMAGE237
The following were used:
Figure 493975DEST_PATH_IMAGE238
(26)
namely, based on the formulae (25) (26), obtained
Figure 714741DEST_PATH_IMAGE239
The annular geometric model of one-dimensional full color gamut color space constructed by combining multi-primary color dye liquor binary coupling color mixing is uniformly divided into hue circles
Figure 52444DEST_PATH_IMAGE240
The polar coordinates of each grid point and its color value can be obtained by equations (25) and (26).
According to a two-dimensional panchromatic color mixing model of the multi-primary color dye solution, a circular geometric model of a two-dimensional panchromatic color space is constructed according to the following operation.
According to the formulas (32), (34) and (36), the two-dimensional full-color-domain color mixing model based on the multi-primary-color dye liquor is a model
Figure 307845DEST_PATH_IMAGE241
Line of
Figure 72801DEST_PATH_IMAGE242
A rectangular color model of the column expressed by equation (36) by coordinate conversion of the grid points
Figure 515283DEST_PATH_IMAGE241
Line of
Figure 656677DEST_PATH_IMAGE242
The rectangular color model of the column is converted into a circular color model as follows:
assuming that the radius of the circular color model is 1, based on the characteristics of the rectangular color model expressed by the formula (36), the circular color model is made along the circumference with the radius of 1
Figure 766584DEST_PATH_IMAGE242
Is divided equally to obtain
Figure 702441DEST_PATH_IMAGE242
A grid point is drawn
Figure 366641DEST_PATH_IMAGE242
Connecting lines of the grid points and the circle center; then the radius of the circle is processed
Figure 311725DEST_PATH_IMAGE243
Is divided equally to obtain
Figure 276139DEST_PATH_IMAGE244
A grid point on the circle radius centered at the center of the circle
Figure 179635DEST_PATH_IMAGE244
Making concentric circles at each grid point, thereby obtaining
Figure 109894DEST_PATH_IMAGE245
The polar coordinates of each grid point in the circular gridding color model are as follows:
Figure 560467DEST_PATH_IMAGE246
(37);
the color value of each grid point in the circular gridding color model is as follows:
Figure 146431DEST_PATH_IMAGE247
(38);
the color mixing ratio of each grid point in the circular gridding color model is as follows:
Figure 657047DEST_PATH_IMAGE248
(39)。
according to a three-dimensional panchromatic range color mixing model based on multi-primary-color dye liquor with different levels of dye liquor concentration, a cylindrical geometric model of a three-dimensional panchromatic range color space is constructed as follows.
According to the formulas (45), (47) and (49), the three-dimensional full-color-domain color mixing model based on the multi-primary-color dye liquor with different levels of dye liquor concentration is a model
Figure 561418DEST_PATH_IMAGE249
Layer(s)
Figure 582726DEST_PATH_IMAGE250
Line of
Figure 521732DEST_PATH_IMAGE251
A quadrangular prism color model of the columns expressed by the formula (49) by coordinate transformation of the grid points
Figure 970293DEST_PATH_IMAGE249
Layer(s)
Figure 129004DEST_PATH_IMAGE250
Line of
Figure 186959DEST_PATH_IMAGE251
The column rectangular color model is converted to a cylindrical color model as follows:
setting the cylinder height of the cylindrical color model as 1 and the radius of the circle as 1, and based on the characteristics of the quadrangular color model expressed by the formula (49), making the cylinder height of 1 as
Figure 980471DEST_PATH_IMAGE252
Equally dividing the circumference with the radius of 1 into
Figure 599934DEST_PATH_IMAGE251
Is divided equally to obtain
Figure 478897DEST_PATH_IMAGE251
A grid point of
Figure 904324DEST_PATH_IMAGE251
A tangent plane of each grid point and the center of the cylinder; then the radius of the cylinder is adjusted
Figure 53808DEST_PATH_IMAGE253
Is divided equally to obtain
Figure 342707DEST_PATH_IMAGE250
A grid point on the radius of the circle with the center of the cylinder as the center
Figure 464292DEST_PATH_IMAGE250
Making concentric cylinders at each grid point, thereby obtaining
Figure 864049DEST_PATH_IMAGE254
The polar coordinates of each grid point in the cylindrical gridding color model are as follows:
Figure 868039DEST_PATH_IMAGE255
(50);
the color values of each grid point in the cylindrical gridding color model are as follows:
Figure 593419DEST_PATH_IMAGE256
(51);
the color mixing ratio of each grid point in the cylindrical gridding color model is as follows:
Figure 682860DEST_PATH_IMAGE257
(52)。
the full-color domain color model and the color spectrum construction thereof which are designed by multi-dimensional gridding dye liquor mixing are applied to the practice, and the following embodiments are analyzed, wherein in the first embodiment, the one-dimensional full-color phase color mixing model and the full-color phase spectrum thereof which are constructed by the color six-primary-color dye liquor are specifically as follows:
1. a binary coupling color mixing mode of the color six-primary-color dye solution;
the weight of a proper dye (one of reactive dye, acid dye, disperse dye and other dyes) is respectively prepared according to specific molar concentration
Figure 151887DEST_PATH_IMAGE258
And taking the dye liquor
Figure 10384DEST_PATH_IMAGE259
. Color values of the color dye liquor are obtained by a color measuring instrument and are sequentially arranged according to the magnitude of hue angles:
Figure 906665DEST_PATH_IMAGE260
,
Figure 748981DEST_PATH_IMAGE261
,
Figure 756120DEST_PATH_IMAGE262
,
Figure 734703DEST_PATH_IMAGE263
,
Figure 536306DEST_PATH_IMAGE264
,
Figure 865918DEST_PATH_IMAGE265
and the color difference is
Figure 411169DEST_PATH_IMAGE266
The quality of the six-primary-color dye solution binary coupling color mixture sample obtained based on the formula (4) is as follows:
Figure 244258DEST_PATH_IMAGE267
(
Figure 482341DEST_PATH_IMAGE268
) (53)
the color mixing ratio of the six-primary-color dye solution binary coupling color mixing sample can be obtained based on the formula (6) as follows:
for the purpose of
Figure 857889DEST_PATH_IMAGE269
:
Figure 206831DEST_PATH_IMAGE270
(
Figure 160006DEST_PATH_IMAGE268
) (54)
For the purpose of
Figure 303411DEST_PATH_IMAGE271
:
Figure 607616DEST_PATH_IMAGE272
(
Figure 494669DEST_PATH_IMAGE268
) (55)
For the purpose of
Figure 302350DEST_PATH_IMAGE273
:
Figure 882236DEST_PATH_IMAGE274
(
Figure 142579DEST_PATH_IMAGE268
) (56)
For the purpose of
Figure 364481DEST_PATH_IMAGE275
:
Figure 26669DEST_PATH_IMAGE276
(
Figure 43036DEST_PATH_IMAGE268
) (57)
To is directed at
Figure 56253DEST_PATH_IMAGE277
:
Figure 550689DEST_PATH_IMAGE278
(
Figure 67383DEST_PATH_IMAGE268
) (58)
For the purpose of
Figure 989071DEST_PATH_IMAGE279
:
Figure 946708DEST_PATH_IMAGE280
(
Figure 979255DEST_PATH_IMAGE268
) (59)
2. Constructing a color six-primary-color dye liquor binary coupling color mixing sub-model;
as shown in the formula (4), 6 groups of binary coupled color mixing submodels can be constructed by the color six-primary-color dye solution, each group of submodels comprises 9 grid points, and the grid points can be arranged into a matrix with 1 row and 9 columns.
(1) A color six-primary-color dye liquor binary coupling color mixing sub-model weight matrix;
Figure 616035DEST_PATH_IMAGE281
(60)
(
Figure 708624DEST_PATH_IMAGE268
)
(2) A color mixing ratio matrix of the color six-primary-color dye liquor binary coupling color mixing sub-model;
Figure 430855DEST_PATH_IMAGE282
(61)
(
Figure 1514DEST_PATH_IMAGE268
)
(3) A color matrix of a color six-primary-color dye liquor binary coupling color mixing sub-model;
Figure 492800DEST_PATH_IMAGE283
(62)
(
Figure 756291DEST_PATH_IMAGE268
)
3. a one-dimensional full-color phase color mixing model and a full-color phase color spectrum of the color six-primary-color dye solution;
under the same molar concentration level, based on the formula (4), 6 groups of binary coupled color mixing sub-models can be constructed by 6 primary color dye solutions, each group of binary coupled color mixing sub-models has 9 color mixing samples, and the 6 groups of binary coupled color mixing sub-models have 54 color mixing sub-samples.
Order to
Figure 965818DEST_PATH_IMAGE284
;
Figure 605747DEST_PATH_IMAGE285
;
Figure 951540DEST_PATH_IMAGE286
. Is provided with
Figure 385932DEST_PATH_IMAGE287
. All of the equations (53), (54) and (55) correspond to
Figure 82755DEST_PATH_IMAGE288
The weight of each binary coupled color mixture, the color mixture ratio and the color thereof can be represented by a matrix of 1 row and 48 columns (removing the color mixture).
Figure 995216DEST_PATH_IMAGE289
(63)
Figure 992253DEST_PATH_IMAGE290
(64)
Figure 597547DEST_PATH_IMAGE291
(65)
(
Figure 527805DEST_PATH_IMAGE292
)
If in the formulas (53), (54) and (55)
Figure 243958DEST_PATH_IMAGE293
And expanding to obtain a weight matrix, a color mixing ratio matrix and a color matrix of the full color gamut subsample:
Figure 564343DEST_PATH_IMAGE294
(66)
(
Figure 606117DEST_PATH_IMAGE295
)
Figure 746373DEST_PATH_IMAGE296
(67)
(
Figure 797375DEST_PATH_IMAGE295
)
Figure 972267DEST_PATH_IMAGE297
(68)
(
Figure 919363DEST_PATH_IMAGE295
)
based on the expressions (56), (57) and (58), it can be known that a one-dimensional full color gamut color space constructed by 6 groups of binary coupling color mixing of the color six-primary dye liquor comprises 48 grid points, and the expressions (56), (57) and (58) give a quality matrix, a color mixing ratio matrix and a color matrix of all color mixing samples, so that a mathematical model of the one-dimensional full color gamut color space constructed by the multi-primary dye liquor binary coupling color mixing is obtained.
4. Constructing a circular geometric model of a color space of a full color domain of a color six-primary-color dye solution;
at the same molar concentration level, six primary colors are dyed in order to construct colorThe coordinates of the grid points of the liquid binary coupled color mixing sample and the geometric model of the chromatogram thereof are determined according to 48 grid points
Figure 78074DEST_PATH_IMAGE298
(
Figure 401608DEST_PATH_IMAGE299
;
Figure 696585DEST_PATH_IMAGE300
Figure 549004DEST_PATH_IMAGE301
) Are arranged in sequence according to the size of the hue angle and are uniformly distributed on a circle with the radius of 2, as shown in figure 2.
Setting color values of each grid point
Figure 195011DEST_PATH_IMAGE298
Polar angle of
Figure 56657DEST_PATH_IMAGE302
Polar radius of
Figure 940561DEST_PATH_IMAGE303
Then each grid point
Figure 495039DEST_PATH_IMAGE298
The polar coordinates are:
Figure 882203DEST_PATH_IMAGE304
Figure 281960DEST_PATH_IMAGE305
(69)
order to
Figure 285951DEST_PATH_IMAGE306
Then, each grid point can be obtained from the formula (26)
Figure 745751DEST_PATH_IMAGE298
Color value of (a):
Figure 366350DEST_PATH_IMAGE307
Figure 304219DEST_PATH_IMAGE305
(70)
based on the formula (69 (70)
Figure 428296DEST_PATH_IMAGE308
A geometric model of a one-dimensional full color gamut color space constructed by grouping multi-primary color dye liquor binary coupling color mixing is uniformly divided into hue circles
Figure 324576DEST_PATH_IMAGE309
The polar coordinates of each grid point and its color value can be obtained by the equations (69) (70).
In the second embodiment, a full-color-domain color mixing model and a full-color-domain color spectrum thereof constructed by using the dye solutions with three colors, one gray and four primary colors are specifically as follows:
1. a ternary double coupling color mixing mode of a three-color one-gray four-primary-color dye solution;
setting the grey dye liquor in the three-color one-grey four-primary-color dye liquor as
Figure 901313DEST_PATH_IMAGE310
The color dye solution is
Figure 908453DEST_PATH_IMAGE311
Figure 887035DEST_PATH_IMAGE312
Based on the formula (9), the quality of the three-group ternary dye solution double-coupling color mixing sample of the four-primary-color dye solution is as follows:
Figure 954217DEST_PATH_IMAGE313
(71)
Figure 283830DEST_PATH_IMAGE314
the color mixture of the three-color-one-gray-four-primary-color dye liquor ternary double-coupling color mixture sample can be obtained based on the formula (71) as follows:
for the purpose of
Figure 563501DEST_PATH_IMAGE315
:
Figure 662169DEST_PATH_IMAGE316
Figure 634673DEST_PATH_IMAGE317
(72)
To is directed at
Figure 197722DEST_PATH_IMAGE318
:
Figure 546663DEST_PATH_IMAGE319
Figure 234259DEST_PATH_IMAGE317
(73)
To is directed at
Figure 377664DEST_PATH_IMAGE320
:
Figure 681869DEST_PATH_IMAGE321
Figure 568922DEST_PATH_IMAGE317
(74)
2. Constructing a three-color one-gray four-primary-color dye liquor ternary double-coupling color mixing sub-model;
as can be seen from equations (8) and (9), each submodel includes 54 grid points, which can be arranged in a matrix of 6 rows and 9 columns, based on 3 sets of ternary dual-coupled color mixing submodels.
(1) A weight matrix of a three-color one-gray four-primary-color dye liquor ternary double coupling color mixing sub-model;
when in use
Figure 376604DEST_PATH_IMAGE322
Obtained by formula (9)First, the
Figure 690910DEST_PATH_IMAGE323
All of the module models
Figure 482411DEST_PATH_IMAGE324
Quality matrix of mixed color samples
Figure 907576DEST_PATH_IMAGE325
Figure 569764DEST_PATH_IMAGE326
Figure 54972DEST_PATH_IMAGE327
(75)
(2) A color mixing ratio matrix of a three-color one-gray four-primary-color dye liquor ternary double coupling color mixing sub-model;
when in use
Figure 68189DEST_PATH_IMAGE322
Obtained from the formula (9)
Figure 562625DEST_PATH_IMAGE323
All of the module models
Figure 79319DEST_PATH_IMAGE324
Color mixing ratio matrix of color mixing samples
Figure 1007DEST_PATH_IMAGE328
Figure 224223DEST_PATH_IMAGE329
Figure 522349DEST_PATH_IMAGE327
(76)
(3) A color matrix of a three-color one-gray four-primary-color dye liquor ternary double coupling color mixing sub-model;
when in use
Figure 159129DEST_PATH_IMAGE322
Obtained from the formula (9)
Figure 251719DEST_PATH_IMAGE323
All of the module models
Figure 973950DEST_PATH_IMAGE324
Color matrix of mixed color samples
Figure 75767DEST_PATH_IMAGE330
Figure 832632DEST_PATH_IMAGE331
Figure 96124DEST_PATH_IMAGE327
(77)
3. A full-color-domain color mixing model and a full-color-domain color spectrum of the dye liquor with three colors, one gray and four primary colors;
(1) A grid point quality matrix of a full-color domain color mixing model of a three-color one-gray four-primary-color dye solution;
it is known that:
Figure 305650DEST_PATH_IMAGE332
let us order
Figure 680000DEST_PATH_IMAGE333
Setting:
Figure 291372DEST_PATH_IMAGE334
Figure 725764DEST_PATH_IMAGE335
(78)
the grid point quality matrix of the full-color-domain color mixing model of the dye liquor with three colors, one gray and four primary colors can be obtained based on the formula (75) as follows:
Figure 422587DEST_PATH_IMAGE336
Figure 335048DEST_PATH_IMAGE337
(79)
(2) A grid point color mixing ratio matrix of a full-color domain color mixing model of a three-color one-gray four-primary-color dye liquor;
based on the formula (76), a grid point color mixing ratio matrix of a three-color-one-gray-four-primary-color dye liquor full-color-domain color mixing model can be obtained as follows:
Figure 332086DEST_PATH_IMAGE338
Figure 937379DEST_PATH_IMAGE337
(80)
(3) A grid point color matrix of a full-color domain color mixing model of the dye liquor with three colors, one gray and four primary colors;
the grid point color matrix of the full-color domain color mixing model of the dye liquor with the three-color-gray four-component primary colors can be obtained based on the formula (77) as follows:
Figure 867638DEST_PATH_IMAGE339
Figure 849369DEST_PATH_IMAGE337
(81)
4. constructing a full-color-gamut geometric model of the dye liquor with three colors, one gray and four primary colors;
(1) Coordinates of grid points of the circular color model;
from the equations (79), (80) and (81), the full-color gamut color mixing model of the three-color-gray-four-primary-color dye solution is a rectangular color model with 6 rows and 24 columns, and is visually different from the color matching circular ring model. The rectangular color model of 6 rows and 24 columns expressed by equation (81) can be converted into a circular ring-shaped color model by coordinate transformation of the grid points. The method comprises the following specific steps:
setting the radius of the circular color model to be 1, based on the characteristics of the rectangular color model expressed by the formula (81), dividing 24 equally along the circumference with the radius of 1 to obtain 24 grid points, and drawing a connecting line between the 24 grid points and the circle center; then 5 equal divisions are carried out on the circle radius to obtain 6 grid points, and the 6 grid points pass through the circle radius by taking the circle center as the center6 grid points are made into concentric circles, thereby obtaining
Figure 169754DEST_PATH_IMAGE340
Grid points, as shown in fig. 3:
the polar coordinates of each grid point in the circular gridding color model are as follows:
Figure 945949DEST_PATH_IMAGE341
Figure 882943DEST_PATH_IMAGE342
(82)
(2) grid point color values of the circular color mixing model;
the color values corresponding to the grid points are:
Figure 137207DEST_PATH_IMAGE343
Figure 312099DEST_PATH_IMAGE342
(83)
(3) the grid point color mixing ratio of the annular color mixing model;
the color mixing ratio corresponding to each grid point is:
Figure 524774DEST_PATH_IMAGE344
Figure 417906DEST_PATH_IMAGE342
(84)
in the third embodiment, a full-color-domain color mixing model and a full-color-domain color spectrum thereof constructed by a six-color-one-gray-seven-primary-color dye solution are specifically as follows:
1. a ternary double coupling color mixing mode of six-color one-gray seven-primary-color dye liquor;
the gray dye liquor in the six-color one-gray seven-element primary color dye liquor is set as
Figure 741440DEST_PATH_IMAGE345
The color dye solution is
Figure 770838DEST_PATH_IMAGE346
Figure 154415DEST_PATH_IMAGE347
;
Figure 66002DEST_PATH_IMAGE348
;
Figure 193227DEST_PATH_IMAGE349
The quality of the ternary dye solution double-coupling color mixing sample of the six-color one-gray seven-primary-color dye solution can be obtained based on the formula (3) is as follows:
Figure 342710DEST_PATH_IMAGE350
(85)
Figure 897189DEST_PATH_IMAGE351
the color mixing of the six-color-one-gray-seven-primary-color dye liquor ternary dual coupling color mixing sample can be obtained based on the formula (85) as follows:
to is directed at
Figure 487615DEST_PATH_IMAGE352
:
Figure 152951DEST_PATH_IMAGE353
Figure 422521DEST_PATH_IMAGE354
(86)
For the purpose of
Figure 882321DEST_PATH_IMAGE355
:
Figure 237341DEST_PATH_IMAGE356
Figure 440789DEST_PATH_IMAGE354
(87)
To is directed at
Figure 564866DEST_PATH_IMAGE357
:
Figure 195567DEST_PATH_IMAGE358
Figure 303463DEST_PATH_IMAGE354
(88)
For the purpose of
Figure 45022DEST_PATH_IMAGE359
:
Figure 23605DEST_PATH_IMAGE360
Figure 90787DEST_PATH_IMAGE354
(89)
To is directed at
Figure 420399DEST_PATH_IMAGE361
:
Figure 700071DEST_PATH_IMAGE362
Figure 798739DEST_PATH_IMAGE354
(90)
To is directed at
Figure 36823DEST_PATH_IMAGE363
:
Figure 334292DEST_PATH_IMAGE364
Figure 683233DEST_PATH_IMAGE354
(91)
2. Constructing a six-color one-gray seven-primary-color dye liquor ternary double-coupling color mixing sub-model;
as can be seen from equations (8) and (9), each submodel contains 54 grid points based on 6 sets of ternary dual-coupled color mixing submodels, which can be arranged into a matrix of 6 rows and 9 columns.
(1) A six-color one-gray seven-primary-color dyeing ternary double-coupling color mixing sub-model weight matrix;
when the temperature is higher than the set temperature
Figure 636408DEST_PATH_IMAGE365
All of the 6-module submodels obtained from the equation (85)
Figure 45393DEST_PATH_IMAGE324
Quality matrix of mixed color samples
Figure 84018DEST_PATH_IMAGE366
Figure 971071DEST_PATH_IMAGE367
Figure 44332DEST_PATH_IMAGE368
(92)
(2) A color mixing ratio matrix of a six-color one-gray seven-primary-color dye liquor ternary double coupling color mixing sub-model;
when in use
Figure 922420DEST_PATH_IMAGE365
All of the 6-module submodels obtained from the equation (85)
Figure 415719DEST_PATH_IMAGE324
Color mixing ratio matrix of color mixing samples
Figure 840884DEST_PATH_IMAGE369
Figure 768651DEST_PATH_IMAGE370
Figure 20903DEST_PATH_IMAGE368
(93)
(3) A color matrix of a six-color one-gray seven-primary-color dye liquor ternary double coupling color mixing sub-model;
when in use
Figure 532656DEST_PATH_IMAGE365
All of the 6-module submodels obtained from the equation (85)
Figure 262976DEST_PATH_IMAGE324
Color matrix of mixed color samples
Figure 809364DEST_PATH_IMAGE371
Figure 486378DEST_PATH_IMAGE372
Figure 954269DEST_PATH_IMAGE368
(94)
3. A six-color one-gray seven-primary-color dye liquor three-dimensional full-color-domain color mixing model and a full-color-domain color spectrum;
(1) A grid point quality matrix of a six-color one-gray seven-primary-color dye liquor full color domain color mixing model;
it is known that:
Figure 285018DEST_PATH_IMAGE373
let us order
Figure 685912DEST_PATH_IMAGE374
Setting:
Figure 279967DEST_PATH_IMAGE375
Figure 500733DEST_PATH_IMAGE376
(95)
the grid point quality matrix of the six-color-one-gray-seven-primary-color dye liquor full-color-domain color mixing model obtained based on the formula (75) is as follows:
Figure 572856DEST_PATH_IMAGE377
Figure 562678DEST_PATH_IMAGE378
(96)
(2) A grid point color mixing ratio matrix of a full-color domain color mixing model of the six-color one-gray seven-primary-color dye liquor;
based on the formula (76), a grid point color mixing ratio matrix of a six-color-one-gray-seven-primary-color dye liquor full color domain color mixing model can be obtained as follows:
Figure 327634DEST_PATH_IMAGE379
Figure 35696DEST_PATH_IMAGE378
(97)
(3) A six-color one-gray seven-primary-color dye liquor full-color domain mixed color model grid point color matrix;
the grid point color matrix of the full-color gamut color mixing model of the six-color-one-gray-seven-primary-color dye liquor can be obtained based on the formula (77) as follows:
Figure 911510DEST_PATH_IMAGE380
Figure 21417DEST_PATH_IMAGE378
(98)
4. constructing a full-color-gamut geometric model of six-color gray-seven-primary-color dye liquor;
(1) Coordinates of grid points of the circular color model;
from the formulas (91), (92) and (93), the six-color-one-gray-seven-color dye liquor full-color-range color mixing model is a 6-row 48-column rectangular color model, and is visually different from a color matching circular ring model. The rectangular color model of 6 rows and 48 columns expressed by equation (98) can be converted into a circular ring-shaped color model by coordinate transformation of the grid points. The method comprises the following specific steps:
setting the radius of the circular ring-shaped color model to be 1, based on the characteristics of the rectangular color model expressed by the formula (98), performing 48 equal divisions along the circumference with the radius of 1 to obtain 48 grid points, and drawing a connecting line between the 48 grid points and the circle center; then 5 equal divisions are carried out on the circle radius to obtain 6 grid points, and the 6 grid points on the circle radius are crossed by taking the circle center as the center to make concentric circles, thereby obtaining the circular arc
Figure 222854DEST_PATH_IMAGE381
Individual grid points, as shown in fig. 4:
the polar coordinates of each grid point in the circular gridding color model are as follows:
Figure 152633DEST_PATH_IMAGE382
Figure 97717DEST_PATH_IMAGE383
(99)
(2) Grid point color values of the circular color mixing model;
the color values corresponding to the grid points are:
Figure 62131DEST_PATH_IMAGE384
Figure 915029DEST_PATH_IMAGE383
(100)
in the fourth embodiment, a full-color gamut color mixing model constructed by gridding and color mixing of a six-color one-gray seven-primary color dye solution with five concentration levels is specifically as follows:
1. a six-color one-gray seven-primary-color dye liquor ternary double coupling color mixing mode with five concentration levels;
in a six-color one-gray seven-primary color dye liquor system with five concentration levels, the gray dye liquor is
Figure 332104DEST_PATH_IMAGE385
The color dye solution is
Figure 815300DEST_PATH_IMAGE386
Setting:
Figure 634220DEST_PATH_IMAGE387
;
Figure 911880DEST_PATH_IMAGE388
;
Figure 347410DEST_PATH_IMAGE389
;
Figure 368717DEST_PATH_IMAGE390
. Then respectively in
Figure 42144DEST_PATH_IMAGE391
With six kinds of color dye liquor
Figure 756285DEST_PATH_IMAGE392
The three-element double-coupling mixed system of the seven-primary-color dye liquor is combined into the following dye liquor color matching systems with different concentrations:
Figure 882372DEST_PATH_IMAGE393
(101)
Figure 441792DEST_PATH_IMAGE387
;
Figure 235305DEST_PATH_IMAGE388
;
Figure 120346DEST_PATH_IMAGE394
;
Figure 733730DEST_PATH_IMAGE395
the color mixture of the six-color-one-gray-seven-primary-color dye liquor ternary dual-coupling color mixture sample with five concentration levels can be obtained based on the formula (101) as follows:
to is directed at
Figure 362420DEST_PATH_IMAGE396
:
Figure 276018DEST_PATH_IMAGE397
Figure 789084DEST_PATH_IMAGE398
(102)
To is directed at
Figure 420922DEST_PATH_IMAGE399
:
Figure 322145DEST_PATH_IMAGE400
Figure 824670DEST_PATH_IMAGE398
(103)
To is directed at
Figure 51514DEST_PATH_IMAGE401
:
Figure 639490DEST_PATH_IMAGE402
Figure 609983DEST_PATH_IMAGE398
(104)
To is directed at
Figure 232594DEST_PATH_IMAGE403
:
Figure 364760DEST_PATH_IMAGE404
Figure 705612DEST_PATH_IMAGE398
(105)
For the purpose of
Figure 214216DEST_PATH_IMAGE405
:
Figure 691333DEST_PATH_IMAGE406
Figure 994401DEST_PATH_IMAGE398
(106)
To is directed at
Figure 556969DEST_PATH_IMAGE407
:
Figure 869264DEST_PATH_IMAGE408
Figure 935309DEST_PATH_IMAGE398
(107)
2. Constructing a six-color one-gray seven-primary-color dye liquor ternary double-coupling color mixing sub-model based on five concentration surfaces;
as can be seen from the formula (96), for 7-primary-color dye solutions with 5 concentration planes, there are 6 sets of ternary dual-coupling color-mixing submodels corresponding to each concentration plane, and each submodel includes
Figure 686576DEST_PATH_IMAGE324
A grid point corresponds to
Figure 736441DEST_PATH_IMAGE409
On each concentration plane, a sub-model containing 6 sets of ternary double coupling color mixing sub-models can be constructed, then
Figure 586847DEST_PATH_IMAGE410
Layer one
Figure 38557DEST_PATH_IMAGE411
Sub-models of a group comprising
Figure 949007DEST_PATH_IMAGE412
A grid of points.
(1) A six-color one-gray seven-primary-color dye liquor ternary double coupling color mixing sub-model weight matrix based on five concentration surfaces;
when in use
Figure 220588DEST_PATH_IMAGE413
;
Figure 874686DEST_PATH_IMAGE409
Obtained by the formula (92) to
Figure 915323DEST_PATH_IMAGE410
Layer one
Figure 262253DEST_PATH_IMAGE411
Sub-models of a group are all
Figure 21130DEST_PATH_IMAGE412
Quality matrix of mixed color samples
Figure 213339DEST_PATH_IMAGE414
Figure 374062DEST_PATH_IMAGE415
Figure 423052DEST_PATH_IMAGE416
(108)
(2) A color mixing ratio matrix of a six-color one-gray seven-primary-color dye liquor ternary double coupling color mixing sub-model based on five concentration planes;
when in use
Figure 403646DEST_PATH_IMAGE413
;
Figure 399546DEST_PATH_IMAGE409
Obtained from the formula (93)
Figure 945934DEST_PATH_IMAGE410
Layer one
Figure 357369DEST_PATH_IMAGE411
Sub-models of a group are all
Figure 825259DEST_PATH_IMAGE412
Color mixing ratio matrix of color mixing samples
Figure 359271DEST_PATH_IMAGE417
Figure 494586DEST_PATH_IMAGE418
Figure 88641DEST_PATH_IMAGE416
(109)
(3) The color matrix of the six-color one-gray seven-primary-color dye liquor ternary double-coupling color mixing sub-model based on five concentration surfaces;
when in use
Figure 43827DEST_PATH_IMAGE413
;
Figure 912688DEST_PATH_IMAGE409
Obtained by the formula (94) to
Figure 168089DEST_PATH_IMAGE410
Layer one
Figure 933045DEST_PATH_IMAGE411
All of the submodels of a group
Figure 109949DEST_PATH_IMAGE412
Color matrix of mixed color samples
Figure 251342DEST_PATH_IMAGE419
Figure 361250DEST_PATH_IMAGE420
Figure 562686DEST_PATH_IMAGE416
(110)
3. Constructing a six-color one-gray seven-primary-color dye liquor full-color-domain color mixing model based on five concentration planes;
(1) A six-color one-gray seven-primary-color dye liquor full-color-domain color mixing model grid point quality matrix based on five concentration planes;
setting:
Figure 961306DEST_PATH_IMAGE421
;
Figure 906391DEST_PATH_IMAGE422
;
Figure 870805DEST_PATH_IMAGE423
;
Figure 989282DEST_PATH_IMAGE424
;
Figure 671936DEST_PATH_IMAGE425
then:
Figure 889553DEST_PATH_IMAGE426
Figure 708473DEST_PATH_IMAGE427
(111)
the quality matrix of the grid points of the seven-primary-color dye liquid full-color-domain color mixing model with five concentration levels can be obtained based on the formula (108) as follows:
Figure 986133DEST_PATH_IMAGE428
(112)
Figure 624925DEST_PATH_IMAGE429
;
Figure 646233DEST_PATH_IMAGE430
(2) A grid point color mixing ratio matrix of a six-color one-gray seven-primary-color dye liquor full-color-domain color mixing model based on five concentration planes;
the grid point color mixing ratio matrix of the seven-primary color dye liquid color mixing model with five concentration levels can be obtained based on the formula (109) as follows:
Figure 585239DEST_PATH_IMAGE431
(113)
Figure 299379DEST_PATH_IMAGE429
;
Figure 691046DEST_PATH_IMAGE430
(3) A six-color one-gray seven-primary-color dye liquor full-color domain mixed color model grid point color matrix based on five concentration planes;
the mesh point color matrix of the full-color gamut color mixing model of the seven-primary-color dye liquor with five concentration levels can be obtained based on the formula (110) as follows:
Figure 781624DEST_PATH_IMAGE432
(114)
Figure 309558DEST_PATH_IMAGE429
;
Figure 194599DEST_PATH_IMAGE430
4. constructing a six-color one-gray seven-primary color dye liquor full color gamut geometric model based on five concentration surfaces;
(1) Grid point coordinates of the cylindrical color model;
from the equations (112) (113) (114), the full-color gamut color mixing model based on five concentration planes of six colors, one gray, and seven primary colors is a quadrangular prism color model with 5 layers, 6 rows, and 48 columns, which is visually different from the cylindrical color model. The color model of the quadrangular prism of 5 layers, 6 rows, and 48 columns expressed by equation (100) can be converted into a cylindrical color model by coordinate transformation of the grid points. The method comprises the following specific steps:
setting the height of a cylinder of a cylindrical color model as 1 and the radius of the circle as 1, dividing the height of the cylinder 1 into 4 equal parts based on the characteristics of the quadrangular color model expressed by the formula (114), dividing the circumference with the radius of 1 into 48 equal parts to obtain 48 grid points, and passing through the sections of the 48 grid points and the axis of the cylinder; then 5 equal divisions are carried out on the radius of the circular column to obtain 6 grid points, the center of the circular column is taken as the center to cross 6 grid points on the radius of the circular column to be made into concentric cylinders, and thereby the concentric cylinders can be obtained
Figure 807983DEST_PATH_IMAGE433
Grid points, as shown in fig. 5.
The polar coordinates of each grid point in the cylindrical gridding color model are:
Figure 436673DEST_PATH_IMAGE434
Figure 84692DEST_PATH_IMAGE435
(115)
(2) color value of grid point of cylindrical color mixing model
The color values corresponding to each grid point are:
Figure 863337DEST_PATH_IMAGE436
Figure 229596DEST_PATH_IMAGE435
(116)
(3) lattice point color mixing ratio of cylindrical color mixing model
The color mixing ratio corresponding to each grid point is:
Figure 396398DEST_PATH_IMAGE437
(117)
Figure 898923DEST_PATH_IMAGE435
firstly, based on gray dye liquor and each color dye liquor under the concentration of each level of dye liquor, respectively constructing a multi-primary dye liquor color mixing mode of hue gradient change, chroma gradient change and concentration gradient change by combining discretization of the quality of each dye liquor, and respectively obtaining the quality, color mixing ratio and color value of a multi-primary coupled color mixing sample under each mode; then, respectively constructing a multi-primary color dye liquor coupling color mixing sub-model under each mode; then respectively constructing a full-color phase color mixing model of the multi-primary color dye solution in each mode; finally, respectively constructing circular geometric models of the full color gamut color space under each mode; therefore, hue control, lightness control and chroma control can be realized in application, digital spinning can be efficiently realized, and the spinning color precision is improved.
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 gist of the present invention.

Claims (11)

1. The full-color-domain color model for multi-dimensional gridding dye liquor mixing and the chromatogram construction thereof are characterized by comprising the following steps:
step A. Preset division based on dye liquor concentration from low to high
Figure 273922DEST_PATH_IMAGE001
The concentration of each grade of dye liquor is preset
Figure 643592DEST_PATH_IMAGE002
The quality of the color dye respectively corresponding to the concentration of each grade of dye liquor is
Figure 132253DEST_PATH_IMAGE003
The quality of the gray dye corresponding to the concentration of each grade dye liquor is
Figure 809353DEST_PATH_IMAGE004
The gray dye solutions are sorted according to the size of the hue angle respectively according to the dye solution concentration of each grade and the color dye solutions under the dye solution concentration of each grade; wherein,
Figure 138572DEST_PATH_IMAGE005
Figure 475881DEST_PATH_IMAGE006
Figure 788920DEST_PATH_IMAGE003
is shown as
Figure 299405DEST_PATH_IMAGE007
The color dye corresponds to
Figure 14289DEST_PATH_IMAGE008
The quality of the color dye liquor of the grade dye liquor concentration;
Figure 725762DEST_PATH_IMAGE004
indicates that the grey dye corresponds to
Figure 57255DEST_PATH_IMAGE008
Quality of the colour dye liquor of the grade dye liquor concentration, and
Figure 138474DEST_PATH_IMAGE003
and
Figure 442285DEST_PATH_IMAGE004
the phase of the two phases is equal to each other, then entering the step B;
step B, respectively measuring the quality of each color dye liquor
Figure 652556DEST_PATH_IMAGE009
According to preset discrete quantity
Figure 612290DEST_PATH_IMAGE010
Discretization is carried out as follows (1):
Figure 543206DEST_PATH_IMAGE011
(1)
wherein,
Figure 435945DEST_PATH_IMAGE012
(ii) a And the quality of the grey dye liquor
Figure 987755DEST_PATH_IMAGE013
According to preset discrete quantity
Figure 529726DEST_PATH_IMAGE014
Discretization is carried out as follows (2):
Figure 388967DEST_PATH_IMAGE015
(2)
wherein,
Figure 362912DEST_PATH_IMAGE016
(ii) a Obtaining multi-primary color dye liquor, and then entering the step C;
c, constructing a multi-primary dye liquor color mixing mode with color gradient change based on the multi-primary dye liquor to obtain the quality, the color mixing ratio and the color value of the multi-primary binary coupling color mixing sample;
constructing a multi-primary dye liquor color mixing mode with gradient changes of hue and chroma based on the multi-primary dye liquor, and obtaining the quality, the color mixing ratio and the color value of the multi-primary ternary dual coupling color mixing sample;
constructing a multi-primary dye liquor color mixing mode with changing hue, chroma and concentration gradient based on the multi-primary dye liquor, obtaining the quality, color mixing ratio and color value of the multi-primary ternary dual coupling color mixing sample with different levels of dye liquor concentration, and then entering the step D;
d, constructing a multi-primary dye liquor binary coupling color mixing sub-model based on the quality, the color mixing ratio and the color value of the multi-primary binary coupling color mixing sample;
constructing a multi-primary-color dye-liquor ternary double coupling color mixing sub-model based on the quality, the color mixing ratio and the color value of the multi-primary-color ternary double coupling color mixing sample;
constructing a multi-primary color dye liquor ternary double coupling color mixing sub-model based on different levels of dye liquor concentrations based on the quality, color mixing ratio and color value of the multi-primary color ternary double coupling color mixing sample with different levels of dye liquor concentrations; then entering step E;
e, constructing a one-dimensional full-color phase color mixing model of the multi-primary-color dye liquor according to the multi-primary-color dye liquor binary coupling color mixing sub-model;
constructing a two-dimensional full-color-domain color mixing model of the multi-primary-color dye liquor according to the multi-primary-color dye liquor ternary dual coupling color mixing sub-model;
constructing a three-dimensional full-color-domain color mixing model based on the multi-primary-color dye liquor with different levels of dye liquor concentrations according to the multi-primary-color dye liquor ternary dual coupling color mixing sub-model based on different levels of dye liquor concentrations, and then entering the step F;
f, constructing a circular geometric model of a one-dimensional panchromatic domain color space according to a one-dimensional panchromatic phase color mixing model of the multi-primary color dye solution;
constructing a circular geometric model of a two-dimensional panchromatic domain color space according to a two-dimensional panchromatic domain color mixing model of the multi-primary color dye solution;
and constructing a cylindrical geometric model of a three-dimensional panchromatic domain color space according to a three-dimensional panchromatic domain color mixing model based on the multi-primary-color dye liquor with different levels of dye liquor concentration.
2. The full-color-domain color model for multi-dimensional gridding dye liquor mixing and the chromatographic construction thereof according to claim 1 are characterized in that: in the step C, a multi-primary dye liquor color mixing mode with gradient change of hue is constructed based on the multi-primary dye liquor, and the quality, the color mixing ratio and the color value of the multi-primary binary coupling color mixing sample are obtained according to the following processing;
aiming at the concentration of the dye liquor in each grade, two kinds of color dye liquor are sequentially selected from the sequencing of the multi-base color dye liquor represented by the formula (1) for combined color mixing as follows:
Figure 820044DEST_PATH_IMAGE017
(3);
wherein,
Figure 318153DEST_PATH_IMAGE018
is shown as
Figure 151723DEST_PATH_IMAGE008
Concentration of the dye liquor of grade
Figure 97683DEST_PATH_IMAGE019
The discrete mass of the seed color dye,
Figure 335504DEST_PATH_IMAGE020
is shown as
Figure 429231DEST_PATH_IMAGE008
Under the concentration of the graded dye liquor
Figure 941858DEST_PATH_IMAGE021
A discrete mass of seed color dye;
performing binary coupling color mixing according to the formula (3) to obtain
Figure 663695DEST_PATH_IMAGE022
A mixed color sample corresponding to the binary coupled mixed color, each mixed color sample
Figure 26412DEST_PATH_IMAGE023
The following were used:
Figure 200911DEST_PATH_IMAGE024
(4);
Figure 205645DEST_PATH_IMAGE023
denotes the first
Figure 188513DEST_PATH_IMAGE008
The quality of a color mixing sample corresponding to binary coupling color mixing under the concentration of the level dye liquor;
according to formula (4), and
Figure 729257DEST_PATH_IMAGE008
color mixing ratio of color mixing sample corresponding to binary coupling color mixing under level dye liquor concentration
Figure 125472DEST_PATH_IMAGE025
Obtaining
Figure 933897DEST_PATH_IMAGE026
The color mixing ratio of each color dye solution in each color mixing sample is as follows:
Figure 427064DEST_PATH_IMAGE027
(5);
and according to
Figure 193901DEST_PATH_IMAGE028
The update formula (5) is as follows:
Figure 437932DEST_PATH_IMAGE029
(6);
Figure 50047DEST_PATH_IMAGE030
is shown as
Figure 69825DEST_PATH_IMAGE031
The quality of the mixed color sample corresponding to the binary coupling mixed color under the concentration of the level dye solution is
Figure 617350DEST_PATH_IMAGE032
The color mixture ratio of the colored dye liquor,
Figure 50474DEST_PATH_IMAGE033
is shown as
Figure 528598DEST_PATH_IMAGE031
The quality of the mixed color sample corresponding to the binary coupling mixed color under the concentration of the level dye solution is
Figure 996357DEST_PATH_IMAGE034
The color mixing ratio of the colored dye liquor;
according to the colour value of binary colour dyeing liquor
Figure 137619DEST_PATH_IMAGE035
Figure 120357DEST_PATH_IMAGE036
Obtained with respect to formula (4)
Figure 808696DEST_PATH_IMAGE037
The color values of the mixed color samples are respectively as follows:
Figure 271907DEST_PATH_IMAGE038
(7);
Figure 833338DEST_PATH_IMAGE039
is shown as
Figure 576077DEST_PATH_IMAGE031
And color values of the color mixing sample corresponding to binary coupling color mixing under the concentration of the graded dye solution.
3. The full-color-domain color model and the color spectrum construction thereof for multi-dimensional gridding dye liquor mixing according to claim 1 are characterized in that: in the step C, a multi-primary dye liquor color mixing mode with gradient changes of hue and chroma is constructed based on the multi-primary dye liquor, and the quality, the color mixing ratio and the color value of the multi-primary ternary dual coupling color mixing sample are obtained through the following processing;
respectively aiming at the concentration of each level of dye liquor, sequentially selecting two color dye liquors from the sequence of the multi-base color dye liquor represented by the formula (1), and combining and selecting the gray dye liquors with the same concentration of the dye liquor from the gray dye liquors represented by the formula (2) to perform combined color mixing as follows:
Figure 209052DEST_PATH_IMAGE040
(8);
wherein,
Figure 261191DEST_PATH_IMAGE041
is shown as
Figure 429742DEST_PATH_IMAGE031
Concentration of the dye liquor of grade
Figure 698656DEST_PATH_IMAGE042
The discrete mass of the seed color dye,
Figure 230262DEST_PATH_IMAGE043
is shown as
Figure 995962DEST_PATH_IMAGE031
Under the concentration of the graded dye liquor
Figure 991206DEST_PATH_IMAGE044
The discrete mass of the seed color dye,
Figure 311198DEST_PATH_IMAGE045
is shown as
Figure 754818DEST_PATH_IMAGE031
Discrete mass of grey dye at the level dye liquor concentration;
performing ternary double coupling color mixing according to the formula (8) to obtain
Figure 578286DEST_PATH_IMAGE046
The quality of each mixed color sample is determined by the quality of the mixed color sample corresponding to the ternary double coupling mixed color
Figure 104951DEST_PATH_IMAGE047
The following were used:
Figure 240135DEST_PATH_IMAGE048
(9);
Figure 441441DEST_PATH_IMAGE049
denotes the first
Figure 470749DEST_PATH_IMAGE031
The quality of a color mixing sample corresponding to ternary double coupling color mixing under the concentration of the level dye solution;
according to formula (9), and
Figure 699474DEST_PATH_IMAGE031
color mixing ratio of color mixing sample corresponding to ternary double coupling color mixing under level dye liquor concentration
Figure 88998DEST_PATH_IMAGE050
Obtaining
Figure 858109DEST_PATH_IMAGE051
The color mixing ratio of each dye solution in each color mixing sample is as follows:
Figure 751110DEST_PATH_IMAGE052
(10);
Figure 947473DEST_PATH_IMAGE053
denotes the first
Figure 89873DEST_PATH_IMAGE031
The quality of the mixed color sample corresponding to ternary double coupling mixed color under the concentration of the level dye solution is
Figure 662674DEST_PATH_IMAGE054
The color mixing ratio of the gray dye liquor,
Figure 643138DEST_PATH_IMAGE055
is shown as
Figure 246288DEST_PATH_IMAGE031
The quality of the mixed color sample corresponding to ternary double coupling mixed color under the concentration of the level dye solution is
Figure 108940DEST_PATH_IMAGE056
The color mixture ratio of the colored dye solution;
Figure 924580DEST_PATH_IMAGE057
is shown as
Figure 290708DEST_PATH_IMAGE031
The quality of the mixed color sample corresponding to ternary double coupling mixed color under the concentration of the level dye solution is
Figure 438662DEST_PATH_IMAGE058
The color mixture ratio of the colored dye solution;
according to the colour values of two colour dyeing liquors
Figure 132817DEST_PATH_IMAGE059
Figure 719525DEST_PATH_IMAGE060
And color value of the grey dye liquor
Figure 674581DEST_PATH_IMAGE061
Obtained with respect to formula (9)
Figure 55752DEST_PATH_IMAGE062
The color values of the mixed color samples are respectively as follows:
Figure 706045DEST_PATH_IMAGE063
(11);
Figure 768548DEST_PATH_IMAGE064
is shown as
Figure 250214DEST_PATH_IMAGE031
And (3) color values of color mixing samples corresponding to ternary double coupling color mixing under the concentration of the level dye solution.
4. The full-color-domain color model for multi-dimensional gridding dye liquor mixing and the chromatographic construction thereof according to claim 1 are characterized in that: in the step C, a multi-primary dye solution color mixing mode with changing hue, chroma and concentration gradient is constructed based on the multi-primary dye solution, the quality, the color mixing ratio and the color value of the multi-primary ternary dual coupling color mixing sample with different levels of dye solution concentration are obtained according to the following processing,
based on the color dye solutions under the dye solution concentrations of all levels, two color dye solutions are selected from the dye solution concentrations of different levels, and the gray dye solutions are selected from the gray dye solutions represented by the formula (2) to carry out combined color mixing as follows:
Figure 153071DEST_PATH_IMAGE065
(12);
wherein,
Figure 461299DEST_PATH_IMAGE066
Figure 796335DEST_PATH_IMAGE067
Figure 663665DEST_PATH_IMAGE068
Figure 855481DEST_PATH_IMAGE069
is shown as
Figure 73842DEST_PATH_IMAGE070
Discrete mass of grey dye at the level dye liquor concentration,
Figure 41929DEST_PATH_IMAGE071
is shown as
Figure 560504DEST_PATH_IMAGE072
Under the concentration of the graded dye liquor
Figure 188800DEST_PATH_IMAGE073
The discrete mass of the seed color dye,
Figure 160036DEST_PATH_IMAGE074
is shown as
Figure 430349DEST_PATH_IMAGE075
Under the concentration of the graded dye liquor
Figure 304896DEST_PATH_IMAGE076
A discrete mass of seed color dye;
performing ternary double coupling color mixing according to formula (12) to obtain
Figure 369672DEST_PATH_IMAGE077
The quality of each mixed color sample is determined by the quality of the mixed color sample corresponding to the ternary double coupling mixed color
Figure 828204DEST_PATH_IMAGE078
The following were used:
Figure 167788DEST_PATH_IMAGE080
(13);
Figure 959157DEST_PATH_IMAGE078
representing the quality of a color mixing sample corresponding to ternary double coupling color mixing under different levels of dye liquor concentration; according to the formula (13) and the color mixing ratio of the color mixing sample corresponding to the ternary double coupling color mixing under different levels of dye liquor concentration
Figure 663677DEST_PATH_IMAGE081
To obtain
Figure 944527DEST_PATH_IMAGE082
The color mixing ratio of each dye liquor in each color mixing sampleThe following were used:
Figure 635272DEST_PATH_IMAGE083
(14)
Figure 622426DEST_PATH_IMAGE084
the quality of the mixed color sample corresponding to ternary double coupling mixed color under different levels of dye liquor concentration is shown as
Figure 373213DEST_PATH_IMAGE085
The color mixing ratio of the gray dye liquor of (1),
Figure 383501DEST_PATH_IMAGE086
the quality of the mixed color sample corresponding to ternary double coupling mixed color under different levels of dye liquor concentration is shown as
Figure 877936DEST_PATH_IMAGE087
The color mixing ratio of the colored dye liquor;
Figure 752220DEST_PATH_IMAGE088
the quality of the mixed color sample corresponding to ternary double coupling mixed color under different levels of dye liquor concentration is shown as
Figure 64122DEST_PATH_IMAGE089
The color mixture ratio of the colored dye solution;
according to the colour values of two colour dyeing liquors
Figure 984542DEST_PATH_IMAGE090
Figure 610564DEST_PATH_IMAGE091
And color value of the grey dye liquor
Figure 604934DEST_PATH_IMAGE092
As to formula (13)Obtain
Figure 618895DEST_PATH_IMAGE093
The color values of the mixed color samples are respectively as follows:
Figure 26612DEST_PATH_IMAGE094
(15);
Figure 285686DEST_PATH_IMAGE095
and the color values of the color mixing samples corresponding to the ternary double coupling color mixing under different levels of dye liquor concentration are represented.
5. The full-color-domain color model and the color spectrum construction thereof for multi-dimensional gridding dye liquor mixing according to claim 1 are characterized in that: in the step D, based on the quality, the color mixing ratio and the color value of the multi-primary-color binary coupling color mixing sample, constructing a multi-primary-color dye solution binary coupling color mixing sub-model as follows:
(1) the quality matrix of the multi-primary color dye liquor binary coupling color mixing sub-model is as follows:
Figure 954737DEST_PATH_IMAGE097
(16);
Figure 247922DEST_PATH_IMAGE098
is shown as
Figure 549459DEST_PATH_IMAGE099
The quality of a color mixing sample corresponding to binary coupling color mixing under the concentration of the level dye liquor;
(2) the color mixing ratio matrix of the multi-primary color dye liquor binary coupling color mixing submodel is as follows:
Figure 48442DEST_PATH_IMAGE101
(17);
Figure 548563DEST_PATH_IMAGE102
is shown as
Figure 982955DEST_PATH_IMAGE099
The color mixing ratio of the color mixing sample corresponding to the binary coupling color mixing under the concentration of the level dye liquor;
(3) the color matrix of the multi-primary color dye liquor binary coupling color mixing submodel is as follows:
Figure 302947DEST_PATH_IMAGE103
(18);
Figure 776260DEST_PATH_IMAGE104
is shown as
Figure 163510DEST_PATH_IMAGE105
Color values of color mixing samples corresponding to binary coupling color mixing under the concentration of the graded dye solution;
based on the quality, the color mixing ratio and the color value of the multi-primary-color ternary and dual coupling color mixing sample, the multi-primary-color dye-liquor ternary and dual coupling color mixing sub-model is constructed as follows:
(1) the quality matrix of the multi-primary-color dye liquor ternary double-coupling color mixing sub-model is as follows:
Figure 486913DEST_PATH_IMAGE106
(27);
Figure 887676DEST_PATH_IMAGE107
is shown as
Figure 88982DEST_PATH_IMAGE108
The quality of a color mixing sample corresponding to ternary double coupling color mixing under the concentration of the level dye solution;
(2) the color mixing ratio matrix of the multi-primary-color dye liquor ternary double coupling color mixing submodel is as follows:
Figure 563694DEST_PATH_IMAGE109
(28);
Figure 57998DEST_PATH_IMAGE110
is shown as
Figure 149320DEST_PATH_IMAGE111
The color mixing ratio of the color mixing sample corresponding to the ternary double coupling color mixing under the concentration of the level dye solution;
(3) the color matrix of the multi-primary color dye liquor ternary double coupling color mixing submodel is as follows:
Figure 888737DEST_PATH_IMAGE113
(29);
Figure 280273DEST_PATH_IMAGE114
is shown as
Figure 712522DEST_PATH_IMAGE115
Color values of color mixing samples corresponding to ternary double coupling color mixing under the concentration of the level dye solution;
based on the quality, the color mixing ratio and the color value of the multi-primary-color ternary double-coupling color mixing sample with different levels of dye liquor concentration, a multi-primary-color ternary double-coupling color mixing sub-model based on different levels of dye liquor concentration is constructed as follows:
(1) the quality matrix of the multi-primary color dye liquor ternary double-coupling color mixing sub-model based on different levels of dye liquor concentrations is as follows:
Figure 111315DEST_PATH_IMAGE117
(40);
Figure 356221DEST_PATH_IMAGE118
representing the quality of a color mixing sample corresponding to ternary double coupling color mixing under different levels of dye liquor concentration;
(2) the color mixing ratio matrix of the multi-primary color dye liquor ternary double-coupling color mixing submodel based on different levels of dye liquor concentration is as follows:
Figure 369307DEST_PATH_IMAGE120
(41);
Figure 736572DEST_PATH_IMAGE121
representing the color mixing ratio of the color mixing sample corresponding to the ternary double coupling color mixing under different levels of dye liquor concentration;
(3) the color matrix of the multi-primary color dye liquor ternary double-coupling color mixing submodel based on different levels of dye liquor concentration is as follows:
Figure 333645DEST_PATH_IMAGE122
(42);
Figure 946023DEST_PATH_IMAGE123
and the color values of the color mixing samples corresponding to the ternary double coupling color mixing under different levels of dye liquor concentration are represented.
6. The full-color-domain color model for multi-dimensional gridding dye liquor mixing and the chromatographic construction thereof according to claim 5 are characterized in that: in the step E, according to the multi-primary color dye solution binary coupling color mixing sub-model, a one-dimensional full-color phase color mixing model of the multi-primary color dye solution is constructed as follows:
order to
Figure 577730DEST_PATH_IMAGE124
Is provided with
Figure 820624DEST_PATH_IMAGE125
Then, the expressions (16), (17) and (18) correspond to all
Figure 311517DEST_PATH_IMAGE126
The quality, color mixing ratio, and color of the binary coupled color mixture sample are measured by 1 line
Figure 85176DEST_PATH_IMAGE127
The matrix of columns is represented as follows:
Figure 23919DEST_PATH_IMAGE128
(19);
Figure 982255DEST_PATH_IMAGE129
(20);
Figure 632548DEST_PATH_IMAGE130
(21);
the compounds of the formulae (16), (17) and (18)
Figure 163892DEST_PATH_IMAGE131
And expanding to obtain a quality matrix of the one-dimensional full-hue gridding color mixing model as follows:
Figure 114399DEST_PATH_IMAGE132
(22);
the color mixing ratio matrix of the one-dimensional full-hue gridding color mixing model is obtained as follows:
Figure 735915DEST_PATH_IMAGE133
(23);
the color matrix of the one-dimensional full-hue gridding color mixing model is obtained as follows:
Figure 309722DEST_PATH_IMAGE134
(24);
namely, a one-dimensional full-color phase color mixing model of the multi-primary color dye solution constructed based on the multi-primary color dye solution binary coupling color mixing is obtained.
7. The full-color-domain color model and the color spectrum construction thereof for multi-dimensional gridding dye liquor mixing according to claim 6 are characterized in that: in the step F, according to the one-dimensional full-color phase color mixing model of the multi-primary-color dye solution, the circular geometric model of the one-dimensional full-color domain color space is constructed as follows:
respectively aiming at the dye liquor concentration of each grade according to
Figure 175916DEST_PATH_IMAGE135
Respective mixed color samples of respective grid points
Figure 512088DEST_PATH_IMAGE136
The hue angle is arranged in sequence and evenly distributed on the circumference with the radius of 1, and each color value is set
Figure 438325DEST_PATH_IMAGE137
Polar angle of grid point of
Figure 656686DEST_PATH_IMAGE138
Polar radius of
Figure 890352DEST_PATH_IMAGE139
Then each color value
Figure 143348DEST_PATH_IMAGE140
The polar coordinates of the grid points of (a) are:
Figure 302802DEST_PATH_IMAGE141
(25);
according to
Figure 274038DEST_PATH_IMAGE142
Then, the color values of the grid points are obtained by equations (5) and (6)
Figure 809931DEST_PATH_IMAGE143
The following:
Figure 481215DEST_PATH_IMAGE144
(26)
namely, based on the formulae (25) (26), obtained
Figure 608308DEST_PATH_IMAGE145
The annular geometric model of one-dimensional full color gamut color space constructed by combining multi-primary color dye liquor binary coupling color mixing is uniformly divided into hue circles
Figure 99464DEST_PATH_IMAGE146
The polar coordinates of each grid point and its color value can be obtained by equations (25) and (26).
8. The full-color-domain color model for multi-dimensional gridding dye liquor mixing and the chromatographic construction thereof according to claim 5 are characterized in that: in the step E, according to the multi-primary-color dye liquor ternary double-coupling color mixing sub-model, a two-dimensional full-color-domain color mixing model of the multi-primary-color dye liquor is constructed as follows:
based on the formulas (13), (14) and (15), it can be seen that the dye solutions of multiple primary colors are respectively used for the dye solution concentrations of each grade
Figure 173468DEST_PATH_IMAGE147
The group-element dual-coupling color mixing submodel comprises
Figure 869897DEST_PATH_IMAGE148
A grid point, passing
Figure 745056DEST_PATH_IMAGE149
Line of
Figure 589688DEST_PATH_IMAGE150
A matrix representation of the columns, and
Figure 342749DEST_PATH_IMAGE147
the group-ternary dual-coupling color-mixing gridding submodel is spliced and combined in sequence from head to tail corresponding to each line to obtain gray dye solution
Figure 565789DEST_PATH_IMAGE151
And a colored dye liquor
Figure 346270DEST_PATH_IMAGE152
Forming a multi-primary color panchromatic domain gridding color mixing model;
order to
Figure 654760DEST_PATH_IMAGE153
Then:
Figure 742671DEST_PATH_IMAGE154
(30);
when the temperature is higher than the set temperature
Figure 882534DEST_PATH_IMAGE155
When the temperature of the water is higher than the set temperature,
Figure 928856DEST_PATH_IMAGE156
,
Figure 724643DEST_PATH_IMAGE157
and is made of
Figure 944140DEST_PATH_IMAGE158
When in use
Figure 531985DEST_PATH_IMAGE159
When the temperature of the water is higher than the set temperature,
Figure 77105DEST_PATH_IMAGE160
,
Figure 251866DEST_PATH_IMAGE161
and is made of
Figure 806213DEST_PATH_IMAGE162
When the temperature is higher than the set temperature
Figure 920668DEST_PATH_IMAGE163
When the utility model is used, the water is discharged,
Figure 902268DEST_PATH_IMAGE164
,
Figure 829904DEST_PATH_IMAGE165
and is and
Figure 945800DEST_PATH_IMAGE166
when the temperature is higher than the set temperature
Figure 275282DEST_PATH_IMAGE167
When the temperature of the water is higher than the set temperature,
Figure 162204DEST_PATH_IMAGE168
,
Figure 419879DEST_PATH_IMAGE169
and is and
Figure 893192DEST_PATH_IMAGE170
integrating all the mixed color samples into a matrix
Figure 44557DEST_PATH_IMAGE171
And, and:
Figure 820489DEST_PATH_IMAGE172
(31);
based on the above
Figure 267258DEST_PATH_IMAGE173
Obtained by double coupling and color mixing of group-three dye solutions
Figure 842464DEST_PATH_IMAGE174
Color mixture sample, and construction
Figure 51598DEST_PATH_IMAGE149
Line of
Figure 218006DEST_PATH_IMAGE175
A gridding matrix of columns, thereby constructing a full color gamut gridding color mixing model, and developing the formula (27) to obtain the full color gamut gridding color mixing model
Figure 341951DEST_PATH_IMAGE149
Line of
Figure 579903DEST_PATH_IMAGE175
The column quality matrix is as follows, namely the quality matrix of the two-dimensional panchromatic gamut color mixing model of the multi-primary color dye solution;
Figure 4062DEST_PATH_IMAGE176
(32);
and (4) obtaining a color mixing ratio matrix of a two-dimensional panchromatic gamut color mixing model of the multi-primary color dye solution corresponding to the formula (28):
Figure 403688DEST_PATH_IMAGE177
(33);
or:
Figure 271323DEST_PATH_IMAGE178
(34);
and (5) obtaining a color matrix of a two-dimensional full-color-domain color mixing model of the multi-primary color dye solution, corresponding to the formula (29):
Figure 814431DEST_PATH_IMAGE179
(35);
or:
Figure 60473DEST_PATH_IMAGE180
(36);
namely, a two-dimensional full-color-domain color mixing model of the multi-primary-color dye solution constructed based on the multi-primary-color dye solution ternary double-coupling color mixing sub-model is obtained.
9. The full-color-domain color model and the color spectrum construction thereof for multi-dimensional gridding dye liquor mixing according to claim 8 are characterized in that: in the step F, according to a two-dimensional panchromatic range color mixing model of the multi-primary color dye solution, a circular geometric model of a two-dimensional panchromatic range color space is constructed according to the following operation;
according to the formulas (32), (34) and (36), the two-dimensional full-color-domain color mixing model based on the multi-primary-color dye liquor is a model
Figure 365421DEST_PATH_IMAGE149
Line of
Figure 696914DEST_PATH_IMAGE175
A rectangular color model of the column expressed by equation (36) by coordinate transformation of the grid points
Figure 43713DEST_PATH_IMAGE149
Line for mobile communication terminal
Figure 409841DEST_PATH_IMAGE175
The rectangular color model of the column is converted into a circular color model as follows:
with circular colour modelsRadius of 1, based on the characteristics of the rectangular color model expressed by equation (36), along the circumference of radius 1
Figure 183894DEST_PATH_IMAGE175
Is divided equally to obtain
Figure 533841DEST_PATH_IMAGE175
A grid point is drawn
Figure 854970DEST_PATH_IMAGE175
Connecting lines of the grid points and the circle center; then the radius of the circle is processed
Figure 950971DEST_PATH_IMAGE181
Is divided equally to obtain
Figure 800984DEST_PATH_IMAGE149
A grid point on the circle radius centered at the center of the circle
Figure 513594DEST_PATH_IMAGE149
Making concentric circles at each grid point, thereby obtaining
Figure 841676DEST_PATH_IMAGE182
The polar coordinates of each grid point in the circular gridding color model are as follows:
Figure 261025DEST_PATH_IMAGE183
(37);
the color value of each grid point in the circular gridding color model is as follows:
Figure 452578DEST_PATH_IMAGE184
(38);
the color mixing ratio of each grid point in the circular gridding color model is as follows:
Figure 216266DEST_PATH_IMAGE185
(39)。
10. the full-color-domain color model for multi-dimensional gridding dye liquor mixing and the chromatographic construction thereof according to claim 5 are characterized in that: in the step E, according to the multi-primary color dye liquor ternary double-coupling color mixing sub-model based on different levels of dye liquor concentration, a three-dimensional full-color-domain color mixing model based on the multi-primary color dye liquor with different levels of dye liquor concentration is constructed as follows:
a first of the multi-primary dyebaths at different dye liquor concentrations based on formula (40)
Figure 879198DEST_PATH_IMAGE186
Layer one
Figure 277687DEST_PATH_IMAGE187
The group-ternary double coupling color mixing is constructed
Figure 836599DEST_PATH_IMAGE188
Sub-models, each sub-model comprising
Figure 461484DEST_PATH_IMAGE189
Individual grid points, should work the first
Figure 662527DEST_PATH_IMAGE186
Layer one
Figure 649943DEST_PATH_IMAGE187
Of group (a)
Figure 809398DEST_PATH_IMAGE190
Line of
Figure 718317DEST_PATH_IMAGE191
Matrix representation of the columns, will all
Figure 129576DEST_PATH_IMAGE192
Of a layer
Figure 237078DEST_PATH_IMAGE193
The group-ternary dual-coupling color-mixing gridding submodel is spliced and combined in sequence from head to tail corresponding to each line to obtain gray dye solution
Figure 36276DEST_PATH_IMAGE194
And color dye liquor
Figure 229228DEST_PATH_IMAGE195
Forming a multi-primary color panchromatic domain gridding color mixing model;
order to
Figure 804697DEST_PATH_IMAGE196
And then:
Figure 140607DEST_PATH_IMAGE197
(43);
when in use
Figure 251652DEST_PATH_IMAGE198
When the temperature of the water is higher than the set temperature,
Figure 666321DEST_PATH_IMAGE199
,
Figure 684962DEST_PATH_IMAGE200
and is and
Figure 439160DEST_PATH_IMAGE201
when in use
Figure 305395DEST_PATH_IMAGE202
When the temperature of the water is higher than the set temperature,
Figure 676203DEST_PATH_IMAGE203
,
Figure 327895DEST_PATH_IMAGE204
and is made of
Figure 795654DEST_PATH_IMAGE205
When the temperature is higher than the set temperature
Figure 107556DEST_PATH_IMAGE206
When the temperature of the water is higher than the set temperature,
Figure 762397DEST_PATH_IMAGE207
,
Figure 716315DEST_PATH_IMAGE208
and is made of
Figure 805625DEST_PATH_IMAGE209
When in use
Figure 350745DEST_PATH_IMAGE210
When the temperature of the water is higher than the set temperature,
Figure 289620DEST_PATH_IMAGE211
,
Figure 79852DEST_PATH_IMAGE212
and is and
Figure 522204DEST_PATH_IMAGE213
integrating all the mixed color samples into a matrix
Figure 503804DEST_PATH_IMAGE214
The following were used:
Figure 431440DEST_PATH_IMAGE215
(44);
based on formula (44), under different levels of dye liquor concentration
Figure 55057DEST_PATH_IMAGE216
Layer(s)
Figure 650118DEST_PATH_IMAGE193
Obtained by double coupling and color mixing of group-three dye solutions
Figure 537040DEST_PATH_IMAGE217
Color mixing sample construction
Figure 716086DEST_PATH_IMAGE192
An
Figure 379280DEST_PATH_IMAGE190
Line for mobile communication terminal
Figure 327382DEST_PATH_IMAGE218
A gridding matrix of columns, thereby constructing a full color gamut gridding color mixing model, and developing the formula (44) to obtain the full color gamut gridding color mixing model
Figure 322889DEST_PATH_IMAGE192
An
Figure 91297DEST_PATH_IMAGE190
Line for mobile communication terminal
Figure 932083DEST_PATH_IMAGE219
Column quality matrix:
Figure 406796DEST_PATH_IMAGE220
(45);
corresponding to the formula (44), under different levels of dye liquor concentration, obtaining a color mixing ratio matrix of the three-dimensional full-color-gamut gridding color mixing model as follows:
Figure 42045DEST_PATH_IMAGE221
(46);
or:
Figure 743154DEST_PATH_IMAGE222
(47);
corresponding to the formula (46), under different levels of dye liquor concentration, the color matrix of the two-dimensional full color gamut gridding color mixing model is obtained as follows:
Figure 823849DEST_PATH_IMAGE223
(48);
or:
Figure 153068DEST_PATH_IMAGE224
(49);
namely, a three-dimensional full-color-domain color mixing model based on multi-primary-color dye liquor with different levels of dye liquor concentration is constructed.
11. The full-color-domain color model and the color spectrum construction thereof for multi-dimensional gridding dye liquor mixing according to claim 10 are characterized in that: in the step F, according to a three-dimensional panchromatic range color mixing model based on multi-primary-color dye liquor with different levels of dye liquor concentration, a cylindrical geometric model of a three-dimensional panchromatic range color space is constructed according to the following operations:
according to the formulas (45), (47) and (49), the three-dimensional full-color-domain color mixing model based on the multi-primary-color dye liquor with different levels of dye liquor concentration is a model
Figure 523001DEST_PATH_IMAGE216
Layer(s)
Figure 570460DEST_PATH_IMAGE190
Line of
Figure 221890DEST_PATH_IMAGE219
A quadrangular prism color model of the columns expressed by equation (49) by coordinate conversion of grid points
Figure 841834DEST_PATH_IMAGE216
Layer(s)
Figure 382668DEST_PATH_IMAGE190
Line of
Figure 651844DEST_PATH_IMAGE219
The rectangular color model of the column is converted into a cylindrical color model as follows:
setting the cylinder height of the cylindrical color model as 1 and the radius of the circle as 1, and based on the characteristics of the quadrangular color model expressed by the formula (49), making the cylinder height of 1 as
Figure 106965DEST_PATH_IMAGE216
Equally dividing the circumference with the radius of 1 into
Figure 112574DEST_PATH_IMAGE219
Is divided equally to obtain
Figure 355467DEST_PATH_IMAGE219
A grid point
Figure 400956DEST_PATH_IMAGE219
A tangent plane of each grid point and the center of the cylinder; then the radius of the cylinder is adjusted
Figure 925347DEST_PATH_IMAGE225
Is divided equally to obtain
Figure 83665DEST_PATH_IMAGE190
A grid point on the radius of the circle with the center of the cylinder as the center
Figure 402520DEST_PATH_IMAGE190
Making concentric cylinders at each grid point, thereby obtaining
Figure 52813DEST_PATH_IMAGE226
The polar coordinates of each grid point in the cylindrical gridding color model are as follows:
Figure 348272DEST_PATH_IMAGE227
(50);
the color values of each grid point in the cylindrical gridding color model are as follows:
Figure 361096DEST_PATH_IMAGE228
(51);
the color mixing ratio of each grid point in the cylindrical gridding color model is as follows:
Figure 319693DEST_PATH_IMAGE229
(52)。
CN202211075972.8A 2022-09-05 2022-09-05 Full-color-domain color model prepared by blending multidimensional gridding dye liquor and chromatographic construction method thereof Active CN115146490B (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN202211075972.8A CN115146490B (en) 2022-09-05 2022-09-05 Full-color-domain color model prepared by blending multidimensional gridding dye liquor and chromatographic construction method thereof

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN202211075972.8A CN115146490B (en) 2022-09-05 2022-09-05 Full-color-domain color model prepared by blending multidimensional gridding dye liquor and chromatographic construction method thereof

Publications (2)

Publication Number Publication Date
CN115146490A true CN115146490A (en) 2022-10-04
CN115146490B CN115146490B (en) 2022-12-13

Family

ID=83415999

Family Applications (1)

Application Number Title Priority Date Filing Date
CN202211075972.8A Active CN115146490B (en) 2022-09-05 2022-09-05 Full-color-domain color model prepared by blending multidimensional gridding dye liquor and chromatographic construction method thereof

Country Status (1)

Country Link
CN (1) CN115146490B (en)

Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN110490981A (en) * 2019-08-14 2019-11-22 愉悦家纺有限公司 A kind of eight yuan of primary colours HSB full gamut color space gridding methods and its discrete chromatography construction method
US20190387132A1 (en) * 2017-11-07 2019-12-19 Shenzhen China Star Optoelectronics Technology Co., Ltd. Color gamut mapping method and color gamut mapping apparatus
CN112632790A (en) * 2020-12-29 2021-04-09 愉悦家纺有限公司 Construction application of multi-dimensional coupling-superposition composite color mixing model and gradient chromatography matrix algorithm
CN113538691A (en) * 2021-06-16 2021-10-22 江南大学 HSI gridding model construction and method for visualizing isochromatic chromatogram of isocratic isochromatic and isochromatic chroma
CN114792363A (en) * 2022-04-19 2022-07-26 江南大学 Panchromatic domain gridding color mixing model construction method based on trichromatic fiber color mixing spinning and color spinning method
CN114820848A (en) * 2022-04-19 2022-07-29 江南大学 Seven-primary-color fiber full-color-gamut color mixing mode and annular gridding color matching model construction and color yarn spinning method

Patent Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20190387132A1 (en) * 2017-11-07 2019-12-19 Shenzhen China Star Optoelectronics Technology Co., Ltd. Color gamut mapping method and color gamut mapping apparatus
CN110490981A (en) * 2019-08-14 2019-11-22 愉悦家纺有限公司 A kind of eight yuan of primary colours HSB full gamut color space gridding methods and its discrete chromatography construction method
CN112632790A (en) * 2020-12-29 2021-04-09 愉悦家纺有限公司 Construction application of multi-dimensional coupling-superposition composite color mixing model and gradient chromatography matrix algorithm
CN113538691A (en) * 2021-06-16 2021-10-22 江南大学 HSI gridding model construction and method for visualizing isochromatic chromatogram of isocratic isochromatic and isochromatic chroma
CN114792363A (en) * 2022-04-19 2022-07-26 江南大学 Panchromatic domain gridding color mixing model construction method based on trichromatic fiber color mixing spinning and color spinning method
CN114820848A (en) * 2022-04-19 2022-07-29 江南大学 Seven-primary-color fiber full-color-gamut color mixing mode and annular gridding color matching model construction and color yarn spinning method

Non-Patent Citations (4)

* Cited by examiner, † Cited by third party
Title
彭辉等: "数字化色彩体系在纺织服装产业链颜色管理中的应用", 《纺织导报》 *
李启正等: "原液着色涤纶交织混色织物的颜色预测模型", 《纺织学报》 *
赵柏钥: "高动态范围和广色域下颜色视觉模型的研究", 《中国优秀硕士学位论文全文数据库》 *
骆柳杉等: "基于天然染料散纤染色的色纺纱柔性制造技术", 《针织工业》 *

Also Published As

Publication number Publication date
CN115146490B (en) 2022-12-13

Similar Documents

Publication Publication Date Title
CN110490981B (en) Gridding model of eight-primary-color HSB color space and discrete chromatogram construction method thereof
CN112562016B (en) Construction and application of color fiber multi-dimensional color mixing space grid model and grid point array chromatogram
CN104572911A (en) Pre-spinning-colored fiber color testing and matching method
CN112348961B (en) Construction and application of color fiber three-dimensional color mixing space grid model and grid point array chromatogram
CN114792363B (en) Full-color domain gridding color mixing model construction method and color spinning method for three-primary-color fiber construction
WO2022110588A1 (en) Construction method for grid model and grid point array color matrix of color fiber four-dimensional color mixing space and use thereof
CN112347684B (en) Construction and application of color fiber five-dimensional color mixing space grid model and grid point array chromatogram
WO2022110587A1 (en) Method for constructing color fiber six-dimensional color mixing space grid model and grid point array color matrix thereof, and application
CN112347685B (en) Construction and application of color fiber two-dimensional color mixing space grid model and grid point array chromatogram
CN114820848B (en) Seven-primary-color fiber full-color-gamut color mixing mode and annular gridding color matching model construction method
CN102799895A (en) Offset printing ink color matching method based on least square support vector machine
CN112733079A (en) Construction and application of multi-dimensional superposition color mixing model and gradient chromatography matrix algorithm
CN115146490B (en) Full-color-domain color model prepared by blending multidimensional gridding dye liquor and chromatographic construction method thereof
CN113536540A (en) Method for constructing high-dimensional discrete chromatogram and visualization by using multi-element mixed-color fiber system
CN115115717B (en) Seven-primary-color polyester three-dimensional gridding mixed three-dimensional color stereoscopic and full-color domain color matching method based on gradient gray value construction
CN112785664B (en) Construction and application of multi-dimensional coupling color mixing model and gradient chromatography matrix algorithm
CN115146489B (en) HSI color stereo constructed by gridding, mixing and blending seven-primary-color dye solution and method for acquiring chromatogram thereof
CN112632790B (en) Construction application of multi-dimensional coupling-superposition composite color mixing model and gradient chromatography matrix algorithm
TWM632587U (en) Automatic color matching device
CN115491909B (en) Color space based on gridding mixing of nine-primary color dye liquor and equal brightness color spectrum construction thereof
Tonnquist Philosophy of perceptive color order systems
CN115115716B (en) Color space constructed by four-primary-color polyester gridding mixing and full-color domain digitizing method
EP1561090A1 (en) Method for the production of a digital colour catalogue
CN113119447A (en) Method for color space conversion of color 3D printing
CN113096196A (en) Method for constructing color system of colored woven fabric

Legal Events

Date Code Title Description
PB01 Publication
PB01 Publication
SE01 Entry into force of request for substantive examination
SE01 Entry into force of request for substantive examination
GR01 Patent grant
GR01 Patent grant