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Kubelka–Munk theory

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Kubelka–Munk (K–M) theory has limitations. The term "failure of the Kubelka–Munk theory" has been applied because it does not "remain valid in strongly absorbing materials". There have been many attempts to explain the limitations and amend the K–M equation. In literature related to diffuse-reflection infrared Fourier-transform (DRIFT) spectra, "particularly specular reflection" is often identified as a culprit. In some corners, there is the working assumption that the problem is that the K–M theory is a two-flux theory, and that introducing additional directions will solve the problem. In particular, two continuous theories, "diffusion theory" and the "equation of radiation transfer" (ERT), have their advocates. Some of the advocates of the ERT have called to our attention the failure of the ERT to predict the desired linear absorption coefficient as particle size gets large, and blamed it on the hidden mass effect. In 2003, Donald and Kevin Dahm illustrated the degree to which the continuous theories all suffer from the fundamental limitation of trying to model a discontinuous sample as a continuum and suggested that as long as the effect of this limitation is unexplored, there is little reason to search for other reasons for "failure".
1282:: that of an opaque (infinitely thick) coating, which can be applied to a sample modeled as an infinite number of infinitesimal layers. The two-stream approximation was embraced by the early practitioners. There were far more mathematics to choose from, but the name Kubelka–Munk became widely regarded as synonymous with any technique that modeled diffuse radiation moving through layers of infinitesimal size. This was aided by the popular assumption that the Kubelka–Munk function (above) was analogous to the absorbance function in transmission spectroscopy. 2932: 238:
simplicity and its acceptable prediction accuracy in many industrial applications, the Kubelka–Munk model remains very popular. However, in almost every application area, the limitations of the model have required improvements. Sometimes these improvements are touted as extensions of Kubelka–Munk theory, sometimes as embracing more general mathematics of which the Kubelka–Munk equation is a special case, and sometimes as an alternate approach.
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our assumptions, half is remitted and half is transmitted. The portion that is transmitted proceeds to the other surface undiminished. There it is again split where half (1/4 of the original incident intensity) is transmitted and half is remitted. The amounts that remitted from the first surface can be totaled as can the amount that are transmitted through the second. The total remission is 2/3 ≈ 0.667. The total transmission is 1/3 ≈ 0.333.
34:, devised by Paul Kubelka and Franz Munk, is a fundamental approach to modelling the appearance of paint films. As published in 1931, the theory addresses "the question of how the color of a substrate is changed by the application of a coat of paint of specified composition and thickness, and especially the thickness of paint needed to obscure the substrate". The mathematical relationship involves just two paint-dependent constants. 4683: 3611: 2357: 655:
pulp and paper industry. If the optical properties (e.g., reflectance and opacity) of each pulp, filler, and dye used in paper-making are known, then the optical properties of a paper made with any combination of the materials can be predicted. If the contrast ratio and reflectivity of a paper are known, the changes in these properties with a change in basis weight can be predicted.
4142: 3097: 1246: 2927:{\displaystyle {\begin{aligned}T_{xy}&={\frac {T_{x}T_{y}}{1-R_{(-x)}R_{y}}}={\frac {(1/2)(1/2)}{1-(1/2)(1/2)}}={\frac {1/4}{3/4}}=1/3,\\R_{xy}&=R_{x}+{\frac {T_{x}^{2}R_{y}}{1-R_{(-x)}R_{y}}}=1/2+{\frac {(1/2)(1/2)(1/2)}{1-(1/2)(1/2)}}=2/3,\\A_{xy}&=1-T_{xy}-R_{xy}=1-1/2-1/2=0.\end{aligned}}} 2181:
The sketch shows two surfaces bounding a slab of a non-absorbing medium. Notice that the assembly would appear identical regardless of which side was being entered. Apart from the surfaces, the medium has no spectroscopic properties. A beam of light of unit intensity reaches the front surface, and by
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Early practitioners, especially D. R. Duncan, assumed that in a mixture of pigments, the colors produced in any given medium may be deduced from formulae involving two constants for each pigment. These constants, which vary with the wavelength of the incident light, measure respectively the absorbing
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from a coating surface is the summation of: 1) the reflectance of the coating surface; 2) the remission from the interior of the coating; and 3) the remission from the surface of the substrate. The intensity considered in the latter two parts is modified by the absorption of the coating material. The
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The Kubelka–Munk theory is also used in the paper industry to predict optical properties of paper, avoiding a labor-intensive trial-and-error approach. The theory is relatively simple in terms of the number of constants involved, works very well for many papers, and is well documented for use by the
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Here we will assume that again the surfaces will remit and transmit 1/2 the amount striking it, this time we will assume that half of the intensity will be absorbed a trip across the slab. A beam of light of unit intensity reaches the front surface, and by our assumptions, half is remitted and half
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While the Kubelka–Munk coefficients are assumed to be linear and independent quantities, the relationship fails in regions of strong absorption, such as in the case of dyed paper. Several theories were proposed to explain the non-linear behavior of the coefficients, attributing the non-linearity to
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In the original article, there is a solution for remission from a coating of finite thickness. Kubelka derived many additional formulas for a variety of other cases, which were published in the post-war years. Whereas the 1931 theory assumed that light flows in one dimension (two fluxes, upward and
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While numerous early authors had developed similar two-constant equations, the mathematics of most of these was found to be consistent with the Kubelka–Munk treatment. Others added additional constants to produce more accurate models, but these generally did not find wide acceptance. Due to its
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Continuous models are widely used to model diffuse reflection from particulate samples. They are embodied in various theories, including diffusion theory, the equation of radiation transfer, as well as Kubelka–Munk. In spite of its widespread use, there has long been an understanding that the
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Spectroscopists have a desire to determine the same absorption coefficient quantity from diffuse reflectance measurements as they would from a transmission measurement on a non-scattering sample of the same material. The Bouguer–Lambert law describes the attenuation of transmitted light as
4678:{\displaystyle {\begin{aligned}T_{xy}&={\frac {T_{x}T_{y}}{1-R_{x}R_{y}}}={\frac {(1/2)(1/4)}{1-(1/8)(1/2)}}=2/15,\\R_{xy}&=R_{x}+{\frac {T_{x}^{2}R_{y}}{1-R_{(-x)}R_{y}}}=1/2+{\frac {(1/4)(1/4)(1/2)}{1-(1/8)(1/2)}}=8/15,\\A_{xy}&=1-T_{xy}-R_{xy}=1-2/15-8/15=1/3.\end{aligned}}} 1572:
exponential falloff in intensity of a direct beam of light as it passes through a medium. The cause of the attenuation may be absorption or scatter. A coefficient unaffected by scatter is desired by absorption spectroscopists. Mathematically, the Bouguer–Lambert law may be expressed as
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power of the pigment for light and its scattering power. The work of Kubelka and Munk was seen as yielding a useful systematic approach to color mixing and matching. By resolving the Kubelka–Munk equation for the ratio of absorption to scatter, one can obtain a "remission function":
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A coating layer is not the same as the substrate it covers. As Kubelka was interested in coatings, he was of course very interested in the handling of what he called "inhomogeneous layers". A set of equations, one of which was believed to apply to the case, had been published by
3606:{\displaystyle {\begin{aligned}T_{xy}&={\frac {T_{x}T_{y}}{1-R_{(-x)}R_{y}}}={\frac {(1/2)(1/2)}{1-(1/2)(0)}}=1/4,\\R_{xy}&=R_{x}+{\frac {T_{x}^{2}R_{y}}{1-R_{(-x)}R_{y}}}=1/2+{\frac {(1/2)(1/2)0}{1-(1/2)0}}=1/2,\\A_{xy}&=1-T_{xy}-R_{xy}=1-1/4-1/2=1/4.\end{aligned}}} 2948:
is transmitted, but this time half of the transmitted light, or 1/4 is absorbed before another 1/4 reaches the second surface, and 1/4 is remitted back across the slab to face half of it being absorbed. The sketch shows that the calculated values from the equations should be
1293:(KBr). This led to a situation analogous to the described in the section just above for pigments, where the analyte had little effect on the scatter, which was dominated by the KBr. In this case, the assumption of the function being linear with concentration was reasonable. 1031: 2966:
Now the sketch has three layers, labeled 1, 2, and 3. Layers 1 and 3 remit and transmit 1/2 and absorb nothing. Layer 2 absorbs half and transmits half, but remits nothing. We can build the assembly by first combining layers 1 and 2, and then combining that result as the
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in 1946 for the case of two light streams through plane parallel layers. However, it did not handle it successfully. Kubelka solved the problem, and we illustrate the solution here. First, a case to which the equation of Benford may be straightforwardly applied.
1300:, the samples are generally measured in their natural (often particulate) state, and deviations from linearity at higher absorption levels were routinely observed. The remission function (also called the Kubelka–Munk function) was almost abandoned in favor of "log(1/ 663:, the coefficients were shown to be dependent quantities related to the real and imaginary part of the refractive index. By accounting for this dependency, the anomalous behavior of the Kubelka–Munk coefficients in regions of strong absorption were fully explained. 2941: 2175: 232: 3907: 919: 4827: 1551: 3615:
Kubelka has shown by theory and experiment that remittance and absorption of a non-homogeneous specimen depend on the direction of illumination, whereas transmittance does not. Consequently, for non-homogeneous layers, the remission
4720:, and then producing the output in RGB. There are additional concerns for dealing with wider gamuts and improving speed. This RGB adaptation makes it easier for digital painting software to integrate the more realistic K–M method. 5677:
Burger, T.; Kuhn, J.; Caps, R.; Fricke, J. (1997-03-01). "Quantitative Determination of the Scattering and Absorption Coefficients from Diffuse Reflectance and Transmittance Measurements: Application to Pharmaceutical Powders".
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Next we will examine the case where the medium is absorbing one. While the total assembly would behave the same in either direction, in order to apply the mathematics, we will need to use an intermediate step where it does not.
1854:, we know that the ART function is constant for all sample thicknesses of the same material. This would include the infinitesimal layer used in the Kubelka–Munk differentiation. Consequently we may equate numerous functions: 1727: 1857: 646:
downward within the layer), in 1948 Kubelka derived the same equations (up to a factor of 2) assuming spherical scatter within the paint layer. Later he generalized the theory to inhomogeneous layers (see below).
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as a remission fraction. The authors noted that the remission from an infinite number of these infinitesimal layers is "solely a function of the ratio of the absorption and back-scatter (remission) constants
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While Kubelka entered this field through an interest in coatings, his work has influenced workers in other areas as well. In the original article, there is a special case of interest to many fields is "the
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concept is based on the simplified picture of two diffuse light fluxes moving through semi-infinite plane-parallel layers, with one flux proceeding "downward", and the other simultaneously "upward".
3093: 4147: 3102: 2362: 805: 1241:{\displaystyle {\frac {(1-R_{\infty })^{2}}{2R_{\infty }}}={\frac {a_{0}}{r_{0}}}={\frac {K}{S}}={\frac {\Sigma (c_{i}K_{i})}{\Sigma (c_{i}S_{i})}}\approx {\frac {\Sigma (c_{i}K_{i})}{S}}.} 103: 720: 2350: 97:, but not in any way on the absolute numerical values of these constants". (The equation is presented in the same mathematical form as in the article, but with symbolism modified.) 607: 472: 5837: 250:(an ability to hide the surface of an object). The hiding power of a coating measures its ability to obscure a background of contrasting color. Hiding power is also known as 640: 510: 379: 3652:
from the first layer that occurs in the denominator is the remission when illuminated from the reverse (not the forward) direction, so we will need to know the value for
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in the ART function, but do not correctly predict the fractions of incident light that are transmitted directly. From this, it can be deduced that the coefficients
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Pracht, G.; Weckler, B.; Lutz, H. D. (2003-10-01). "Diffuse Reflection Infrared Fourier Transform (DRIFT) Spectra and High-Temperature DRIFT Spectra of β—Ni(IO
5209: 5328:"Color in business, science, and industry. By Deane B. Judd. John Wiley & Sons, Inc., New York, 1952. 401 pp. Illustrated. 15.5 × 24 cm. Price $ 6.50". 5515:
Alcaraz de la Osa, R.; Iparragirre, I.; Ortiz, D.; Saiz, J. M. (March 2020). "The extended Kubelka–Munk theory and its application to spectroscopy".
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In the original article, there are several special cases important to paints that are addressed, along with a mathematical definition of
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is dominated by the base material and is assumed to be constant. In such a case, the equation is linear in concentration of pigment.
59: 2044:{\displaystyle 2F(R)=A(R,T)={\frac {(2-a-2r)a}{r}}\approx 2{\frac {a_{0}}{r_{0}}}=2{\frac {a_{0}/dx}{r_{0}/dx}}=2{\frac {K}{S}}.} 1851: 1305: 5184: 4967: 46: 5215: 2053:
Using a simple system (albeit rather complex mathematics), it can be shown that continuous models correctly predict the
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the non-isotropic structure of paper at both the micro- and macroscopic levels. However, using an analysis based on the
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axis. There is a simpler method adapted from the Kubelka–Munk theory, in which the band gap is calculated by plotting,
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Koukoulas, A. A.; Jordan, B. D. (May 1997). "Effect of strong absorption on the Kubelka-Munk scattering coefficient".
227:{\displaystyle R_{\infty }=1+{\frac {a_{0}}{r_{0}}}-{\sqrt {{\frac {a_{0}^{2}}{r_{0}^{2}}}+2{\frac {a_{0}}{r_{0}}}}}.} 5560: 5405: 981:
in the Kubelka–Munk equation above. Then assuming separate additivity of the absorption and coefficients for each of
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Dahm, Donald J.; Dahm, Kevin D. (2003-12-01). "Illustration of Failure of Continuum Models of Diffuse Reflectance".
3902:{\displaystyle R_{yx}=R_{y}+{\frac {T_{y}^{2}R_{x}}{1-R_{(-y)}R_{x}}}=0.0+{\frac {(1/2)(1/2)(1/2)}{1-0(1/2)}}=1/8.} 1279: 62:, which describes the remission from a sample composed of an infinite number of infinitesimal layers, each having 5231:"How To Correctly Determine the Band Gap Energy of Modified Semiconductor Photocatalysts Based on UV–Vis Spectra" 1559:
In other areas of spectroscopy, there are shifts away from the strict use of the Kubelka–Munk treatment as well.
682: 5103:"New Contributions to the Optics of Intensely Light-Scattering Materials. Part II: Nonhomogeneous Layers" 2289: 4696:
by Sochorová and Jamriška in 2021. Their "Mixbox" approach works by converting the inputs into a version of
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is the fraction of incident light that is remitted (reflected) by a coated substrate under consideration,
914:{\displaystyle F(R_{\infty })\equiv {\frac {(1-R_{\infty })^{2}}{2R_{\infty }}}={\frac {a_{0}}{r_{0}}}.} 5584: 5472:
Dahm, Kevin (2013). "Separating the Effects of Scatter and Absorption Using the Representative Layer".
4925: 1297: 5555:. Donald A. Burns, Emil W. Ciurczak (2nd ed., rev. and expanded ed.). New York: M. Dekker. 2001. 5068: 5791:
Sochorová, Šárka; Jamriška, Ondřej (December 2021). "Practical pigment mixing for digital painting".
1308:, was developed, along with a scheme to separate the effects of scatter from absorption in the log(1/ 963:
as absorption and back-scattering coefficients, which replace the absorption and remission fractions
5272:"Sımple Method For The Determınatıon of Band Gap of a Nanopowdered Sample Usıng Kubelka Munk Theory" 5102: 5021: 4984: 612: 482: 351: 38: 1790: 729:. Then the band-gap energy can be obtained by extending the straight segment of the graph to the 4037: 3996: 3955: 3914: 2185:
Alternatively, we can use the equation of Benford that applies. For two plane parallel layers,
1772: 5069:"Errata: New Contributions to the Optics of Intensely Light-Scattering Materials. Part I" 4078: 3619: 1847:
may be used to represent the absorption and scattering parts of the extinction coefficients.)
1823: 1796: 736: 4822:{\displaystyle H_{\infty }=1+{\frac {s}{r}}-{\sqrt {{\frac {s^{2}}{r^{2}}}+2{\frac {s}{r}}}}} 2196: 1286: 515: 3655: 2259: 2229: 1546:{\displaystyle A(R,T)\equiv {\frac {(1-R_{n})^{2}-T_{n}^{2}}{R_{n}}}={\frac {(2-a-2r)a}{r}}} 5687: 5635: 5481: 5438: 5368: 5302: 5033: 4900: 1342: 1315: 1004: 4716:) plus a residue (to account for the gamut difference), performing the K–M mixing in that 322: 8: 4114: 5691: 5639: 5485: 5442: 5372: 5306: 5037: 5808: 5738: 5703: 5659: 5578: 5532: 5497: 5454: 5176: 4852: 4832: 2140: 2120: 2100: 2080: 2060: 1752: 1732: 1389: 1369: 1253: 984: 946: 926: 776: 388: 291: 5022:"New Contributions to the Optics of Intensely Light-Scattering Materials. Part I" 5832: 5812: 5773: 5651: 5566: 5556: 5536: 5411: 5401: 5314: 5271: 5252: 5180: 5049: 4963: 1290: 308:
is the fraction of incident light transmitted by the sample under consideration, and
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for the two layers can be calculated from the properties of the individual layers (
4693: 251: 42: 5247: 5230: 5152: 5135: 5647: 4713: 1722:{\displaystyle \mathrm {T} (direct)=\exp(-kd)\exp(-sd)=\exp=\exp(-\epsilon d),} 5528: 5826: 5699: 5450: 5415: 723: 37:
In their article, "fundamental differential equations" are developed using a
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Dahm, Donald (1999). "Representative Layer Theory for Diffuse Reflectance".
1289:, it was common to prepare solid samples by finely grinding the sample with 5777: 5769: 5655: 5341: 5256: 5118: 5084: 5053: 5045: 4717: 4709: 4701: 247: 5550: 5493: 319:
An ideal white paint reflects all incident light, and absorbs none, or
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for light diffusing through a coating whose absorption and remission (
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Makuła, Patrycja; Pacia, Michał; Macyk, Wojciech (6 December 2018).
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The K–M paint-mixing algorithm has been adapted to directly use the
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Journal of the American Pharmaceutical Association (Scientific Ed.)
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are the measured remission by and transmission through a sample of
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Benford, Frank (1946-09-01). "Radiation in a Diffusing Medium".
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layers, each layer having absorption and remission fractions of
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Journal of the Nigerian Association of Mathematical Physics
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Reflectance spectroscopy Principles, methods, applications
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energy of semiconductors is frequently determined from a
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Duncan, D. R. (1940). "The colour of pigment mixtures".
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Brill, Michael H.; Vik, Michal (2014). "Kubelka, Paul".
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Bajpai, Pratima (2018). "Optical Properties of Paper".
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of an infinitely thick coating". This case yielded the
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Scattering, absorption and radiative transfer (optics)
3088:{\displaystyle R_{x}=1/2,T_{x}=1/2,R_{y}=0,T_{y}=1/2,} 1250:
For the case of small amount of pigments, the scatter
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is remission fraction of an infinitely thick layer,
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is the remission fraction from the substrate alone,
4926:"Kubelka–Munk Theory – an overview" 1563:
Failure of continuous models of diffuse reflectance
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The 649: 27:Modelling the appearance of paint coatings 5380: 5269: 5246: 5235:The Journal of Physical Chemistry Letters 5151: 715:{\displaystyle {\sqrt {F(R_{\infty })E}}} 5720: 5354: 5348: 5005:Wendlandt, Wesley; Hecht, Harry (1966). 4949: 1410:. Note that the so-called ART function 1304:)". A more general equation, called the 5755: 5508: 5389: 5100: 5066: 5019: 4985:"Autobiographical Sketch: Paul Kubelka" 2971:value in combing with layer 3 (as 2345:{\displaystyle T_{x},R_{x},T_{y},R_{y}} 14: 5825: 5422: 5395: 5357:"Radiation through a foggy atmosphere" 5292: 5166: 5130: 5128: 4982: 4901:"An article on optics of paint layers" 1749:is the linear absorption coefficient, 1556:is constant for any sample thickness. 381:For this case, the remission fraction 5723:Journal of Near Infrared Spectroscopy 5474:Journal of Near Infrared Spectroscopy 5169:Biermann's Handbook of Pulp and Paper 4918: 1769:is the back-scatter coefficient, and 602:{\displaystyle R=R_{g}\exp(-2a_{0}X)} 5471: 5428: 5096: 5094: 5000: 4998: 4996: 4994: 4894: 4892: 467:{\displaystyle R=r_{0}X/(r_{0}X+1).} 45:) coefficients are known. The total 5295:Proceedings of the Physical Society 5125: 4899:Kubelka, Paul; Munk, Franz (1931). 24: 5552:Handbook of near-infrared analysis 5465: 5286: 5177:10.1016/B978-0-12-814238-7.00011-8 5160: 4748: 4687: 2939: 2173: 1580: 1200: 1162: 1131: 1077: 1052: 873: 848: 820: 699: 621: 360: 112: 25: 5849: 5202:Journal of Pulp and Paper Science 5091: 4991: 4889: 2161:Treatment of inhomogeneous layers 666: 609:. For an infinitely thick glaze, 3683:is layer 2, and layer  2352:) from the following equations: 1280:diffuse reflectance spectroscopy 385:for a layer of finite thickness 5784: 5749: 5714: 5670: 5591: 5543: 5321: 5263: 5222: 5193: 4960:10.1007/978-3-642-27851-8_300-1 1789:is their sum, often called the 1273: 793:is the absorption coefficient. 241: 5136:"Paper's appearance: A review" 5060: 5013: 4976: 4943: 4736:The original symbolism was: 4730: 4541: 4527: 4524: 4510: 4499: 4485: 4482: 4468: 4465: 4451: 4413: 4404: 4303: 4289: 4286: 4272: 4261: 4247: 4244: 4230: 4096: 4087: 3879: 3865: 3851: 3837: 3834: 3820: 3817: 3803: 3773: 3764: 3637: 3628: 3466: 3452: 3438: 3424: 3421: 3407: 3369: 3360: 3259: 3253: 3250: 3236: 3225: 3211: 3208: 3194: 3170: 3161: 2798: 2784: 2781: 2767: 2756: 2742: 2739: 2725: 2722: 2708: 2670: 2661: 2527: 2513: 2510: 2496: 2485: 2471: 2468: 2454: 2430: 2421: 1924: 1903: 1894: 1882: 1873: 1867: 1713: 1701: 1689: 1686: 1680: 1668: 1662: 1650: 1638: 1629: 1617: 1605: 1584: 1531: 1510: 1464: 1444: 1435: 1423: 1226: 1203: 1188: 1165: 1157: 1134: 1058: 1038: 854: 834: 825: 812: 750: 740: 704: 691: 635:{\displaystyle R_{\infty }=0.} 596: 574: 505:{\displaystyle R_{\text{c}}=0} 458: 436: 374:{\displaystyle R_{\infty }=1.} 71:as an absorption fraction and 13: 1: 4882: 3911:The next step is then to set 5793:ACM Transactions on Graphics 5101:Kubelka, Paul (1954-04-01). 5067:Kubelka, Paul (1948-12-01). 5020:Kubelka, Paul (1948-05-01). 2157:in the Bouguer–Lambert law. 2117:and not proportional to the 1001:components of concentration 7: 5248:10.1021/acs.jpclett.8b02892 5153:10.15376/biores.3.2.627-665 2256:, and absorption fractions 10: 5854: 5648:10.1366/000370203769699126 5336:(12): 757. December 1953. 5315:10.1088/0959-5309/52/3/310 1298:near-infrared spectroscopy 312:is the coating thickness. 18:Kubelka-Munk approximation 5529:10.1007/s40828-019-0097-0 5355:Schuster, Aurhur (1905). 5270:Abdullahi, Sabiu (2016). 5009:. New York: Interscience. 4068:{\displaystyle T_{y}=1/2} 4027:{\displaystyle R_{y}=1/2} 3986:{\displaystyle T_{x}=1/4} 3945:{\displaystyle R_{x}=1/2} 1782:{\displaystyle \epsilon } 1312:) data. In the equation, 1296:However, in the field of 796: 512:) and absorbs a fraction 5700:10.1366/0003702971940404 5451:10.1366/0003702991947298 5146:(2): 627–665. May 2008. 5007:Reflectance Spectroscopy 4983:Westin, Stephen (2011). 4723: 4104:{\displaystyle R_{(-x)}} 3645:{\displaystyle R_{(-x)}} 1840:{\displaystyle \mu _{s}} 1813:{\displaystyle \mu _{a}} 762:{\displaystyle (aE)^{2}} 661:Kramers–Kronig relations 650:Paper and paper coatings 39:two-stream approximation 5805:10.1145/3478513.3480549 5396:Kortüm, Gustav (1969). 4869:is for the German word 2219:{\displaystyle T_{xy},} 538:{\displaystyle a_{0}X.} 5770:10.1364/JOSA.36.000524 5583:: CS1 maint: others ( 5342:10.1002/jps.3030421221 5119:10.1364/JOSA.44.000330 5085:10.1364/JOSA.38.001067 5046:10.1364/JOSA.38.000448 4871: 4863: 4843: 4823: 4679: 4133: 4111:in the denominator as 4105: 4069: 4028: 3987: 3946: 3903: 3673: 3672:{\displaystyle R_{21}} 3646: 3607: 3089: 2944: 2928: 2346: 2280: 2279:{\displaystyle A_{xy}} 2250: 2249:{\displaystyle R_{xy}} 2220: 2178: 2151: 2131: 2111: 2091: 2071: 2045: 1850:Through work with the 1841: 1814: 1791:extinction coefficient 1783: 1763: 1743: 1723: 1547: 1400: 1380: 1360: 1333: 1264: 1242: 1022: 995: 957: 937: 915: 787: 763: 716: 636: 603: 539: 506: 468: 399: 375: 342: 302: 228: 5361:Astrophysical Journal 4930:www.sciencedirect.com 4864: 4844: 4824: 4680: 4134: 4106: 4070: 4029: 3988: 3947: 3904: 3674: 3647: 3608: 3090: 2943: 2929: 2347: 2281: 2251: 2221: 2177: 2152: 2132: 2112: 2092: 2072: 2046: 1842: 1815: 1784: 1764: 1744: 1724: 1548: 1401: 1381: 1361: 1359:{\displaystyle T_{n}} 1334: 1332:{\displaystyle R_{n}} 1287:infrared spectroscopy 1265: 1243: 1023: 1021:{\displaystyle c_{i}} 996: 958: 938: 916: 788: 764: 717: 679:, where the quantity 637: 604: 540: 507: 469: 400: 376: 343: 303: 229: 60:Kubelka–Munk equation 5680:Applied Spectroscopy 5628:Applied Spectroscopy 5431:Applied Spectroscopy 5400:. Berlin: Springer. 5171:. pp. 237–271. 4853: 4833: 4829:, where confusingly 4740: 4706:quinacridone magenta 4143: 4115: 4079: 4038: 3997: 3956: 3915: 3691: 3656: 3620: 3098: 2982: 2358: 2290: 2260: 2230: 2197: 2141: 2121: 2101: 2081: 2061: 1858: 1824: 1797: 1773: 1753: 1733: 1576: 1417: 1390: 1370: 1343: 1316: 1254: 1032: 1005: 985: 947: 927: 806: 777: 737: 683: 613: 549: 516: 483: 409: 389: 352: 341:{\displaystyle a=0,} 323: 292: 104: 5692:1997ApSpe..51..309B 5640:2003ApSpe..57.1254P 5486:2013JNIS...21..351D 5443:1999ApSpe..53..647D 5373:1905ApJ....21....1S 5307:1940PPS....52..390D 5038:1948JOSA...38..448K 4380: 4132:{\displaystyle 1/8} 3740: 3336: 2637: 1490: 722:is plotted against 254:or covering power. 186: 171: 32:Kubelka-Munk theory 5494:10.1255/jnirs.1062 4859: 4839: 4819: 4675: 4673: 4366: 4129: 4101: 4065: 4024: 3983: 3942: 3899: 3726: 3669: 3642: 3603: 3601: 3322: 3085: 2945: 2924: 2922: 2623: 2342: 2276: 2246: 2216: 2179: 2147: 2127: 2107: 2087: 2067: 2041: 1837: 1810: 1779: 1759: 1739: 1719: 1543: 1476: 1396: 1376: 1356: 1329: 1260: 1238: 1018: 991: 953: 933: 911: 783: 759: 712: 632: 599: 535: 502: 464: 395: 371: 338: 298: 257:In the following, 224: 172: 157: 5735:10.1255/jnirs.398 5634:(10): 1254–1259. 5241:(23): 6814–6817. 5186:978-0-12-814238-7 4969:978-3-642-27851-8 4862:{\displaystyle H} 4842:{\displaystyle s} 4817: 4815: 4799: 4770: 4545: 4429: 4307: 4222: 3883: 3789: 3687:is layer 1: 3473: 3385: 3263: 3186: 2802: 2686: 2564: 2531: 2446: 2150:{\displaystyle s} 2130:{\displaystyle k} 2110:{\displaystyle S} 2090:{\displaystyle K} 2070:{\displaystyle T} 2036: 2020: 1964: 1934: 1762:{\displaystyle s} 1742:{\displaystyle k} 1541: 1502: 1399:{\displaystyle a} 1379:{\displaystyle n} 1291:potassium bromide 1263:{\displaystyle S} 1233: 1192: 1123: 1110: 1083: 994:{\displaystyle i} 956:{\displaystyle S} 936:{\displaystyle K} 906: 879: 786:{\displaystyle a} 710: 493: 398:{\displaystyle X} 316:Ideal white paint 301:{\displaystyle T} 219: 217: 187: 148: 16:(Redirected from 5845: 5817: 5816: 5788: 5782: 5781: 5753: 5747: 5746: 5718: 5712: 5711: 5674: 5668: 5667: 5595: 5589: 5588: 5582: 5574: 5547: 5541: 5540: 5512: 5506: 5505: 5469: 5463: 5462: 5426: 5420: 5419: 5393: 5387: 5386: 5384: 5352: 5346: 5345: 5325: 5319: 5318: 5290: 5284: 5283: 5267: 5261: 5260: 5250: 5226: 5220: 5219: 5214: 5197: 5191: 5190: 5164: 5158: 5157: 5155: 5132: 5123: 5122: 5098: 5089: 5088: 5064: 5058: 5057: 5017: 5011: 5010: 5002: 4989: 4988: 4980: 4974: 4973: 4954:. pp. 1–3. 4947: 4941: 4940: 4938: 4936: 4922: 4916: 4915: 4905: 4896: 4876: 4874: 4868: 4866: 4865: 4860: 4848: 4846: 4845: 4840: 4828: 4826: 4825: 4820: 4818: 4816: 4808: 4800: 4798: 4797: 4788: 4787: 4778: 4776: 4771: 4763: 4752: 4751: 4734: 4684: 4682: 4681: 4676: 4674: 4667: 4653: 4639: 4622: 4621: 4606: 4605: 4580: 4579: 4557: 4546: 4544: 4537: 4520: 4502: 4495: 4478: 4461: 4449: 4441: 4430: 4428: 4427: 4426: 4417: 4416: 4391: 4390: 4389: 4379: 4374: 4364: 4359: 4358: 4342: 4341: 4319: 4308: 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3078: 3067: 3066: 3048: 3047: 3032: 3021: 3020: 3005: 2994: 2993: 2962: 2957:= 2/15 ≈ 0.133, 2953:= 8/15 ≈ 0.533, 2933: 2931: 2930: 2925: 2923: 2910: 2896: 2879: 2878: 2863: 2862: 2837: 2836: 2814: 2803: 2801: 2794: 2777: 2759: 2752: 2735: 2718: 2706: 2698: 2687: 2685: 2684: 2683: 2674: 2673: 2648: 2647: 2646: 2636: 2631: 2621: 2616: 2615: 2599: 2598: 2576: 2565: 2563: 2559: 2550: 2546: 2537: 2532: 2530: 2523: 2506: 2488: 2481: 2464: 2452: 2447: 2445: 2444: 2443: 2434: 2433: 2408: 2407: 2406: 2397: 2396: 2386: 2377: 2376: 2351: 2349: 2348: 2343: 2341: 2340: 2328: 2327: 2315: 2314: 2302: 2301: 2285: 2283: 2282: 2277: 2275: 2274: 2255: 2253: 2252: 2247: 2245: 2244: 2225: 2223: 2222: 2217: 2212: 2211: 2156: 2154: 2153: 2148: 2136: 2134: 2133: 2128: 2116: 2114: 2113: 2108: 2096: 2094: 2093: 2088: 2076: 2074: 2073: 2068: 2056: 2050: 2048: 2047: 2042: 2037: 2029: 2021: 2019: 2012: 2007: 2006: 1996: 1989: 1984: 1983: 1973: 1965: 1963: 1962: 1953: 1952: 1943: 1935: 1930: 1901: 1846: 1844: 1843: 1838: 1836: 1835: 1819: 1817: 1816: 1811: 1809: 1808: 1788: 1786: 1785: 1780: 1768: 1766: 1765: 1760: 1748: 1746: 1745: 1740: 1728: 1726: 1725: 1720: 1583: 1552: 1550: 1549: 1544: 1542: 1537: 1508: 1503: 1501: 1500: 1491: 1489: 1484: 1472: 1471: 1462: 1461: 1442: 1409: 1405: 1403: 1402: 1397: 1385: 1383: 1382: 1377: 1365: 1363: 1362: 1357: 1355: 1354: 1338: 1336: 1335: 1330: 1328: 1327: 1285:In the field of 1269: 1267: 1266: 1261: 1247: 1245: 1244: 1239: 1234: 1229: 1225: 1224: 1215: 1214: 1198: 1193: 1191: 1187: 1186: 1177: 1176: 1160: 1156: 1155: 1146: 1145: 1129: 1124: 1116: 1111: 1109: 1108: 1099: 1098: 1089: 1084: 1082: 1081: 1080: 1067: 1066: 1065: 1056: 1055: 1036: 1027: 1025: 1024: 1019: 1017: 1016: 1000: 998: 997: 992: 980: 971: 962: 960: 959: 954: 942: 940: 939: 934: 920: 918: 917: 912: 907: 905: 904: 895: 894: 885: 880: 878: 877: 876: 863: 862: 861: 852: 851: 832: 824: 823: 792: 790: 789: 784: 772: 768: 766: 765: 760: 758: 757: 732: 728: 721: 719: 718: 713: 711: 703: 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4854: 4851: 4850: 4834: 4831: 4830: 4807: 4793: 4789: 4783: 4779: 4777: 4775: 4762: 4747: 4743: 4741: 4738: 4737: 4735: 4731: 4726: 4694:RGB color model 4690: 4688:In computer art 4672: 4671: 4663: 4649: 4635: 4614: 4610: 4598: 4594: 4581: 4572: 4568: 4565: 4564: 4553: 4533: 4516: 4503: 4491: 4474: 4457: 4450: 4448: 4437: 4422: 4418: 4403: 4399: 4392: 4385: 4381: 4375: 4370: 4365: 4363: 4354: 4350: 4343: 4334: 4330: 4327: 4326: 4315: 4295: 4278: 4265: 4253: 4236: 4229: 4227: 4215: 4211: 4205: 4201: 4194: 4187: 4183: 4177: 4173: 4172: 4170: 4163: 4154: 4150: 4146: 4144: 4141: 4140: 4121: 4116: 4113: 4112: 4086: 4082: 4080: 4077: 4076: 4057: 4045: 4041: 4039: 4036: 4035: 4016: 4004: 4000: 3998: 3995: 3994: 3975: 3963: 3959: 3957: 3954: 3953: 3934: 3922: 3918: 3916: 3913: 3912: 3891: 3871: 3855: 3843: 3826: 3809: 3802: 3800: 3782: 3778: 3763: 3759: 3752: 3745: 3741: 3735: 3730: 3725: 3723: 3714: 3710: 3698: 3694: 3692: 3689: 3688: 3663: 3659: 3657: 3654: 3653: 3627: 3623: 3621: 3618: 3617: 3600: 3599: 3591: 3577: 3563: 3542: 3538: 3526: 3522: 3509: 3500: 3496: 3493: 3492: 3481: 3458: 3445: 3430: 3413: 3406: 3404: 3393: 3378: 3374: 3359: 3355: 3348: 3341: 3337: 3331: 3326: 3321: 3319: 3310: 3306: 3299: 3290: 3286: 3283: 3282: 3271: 3242: 3229: 3217: 3200: 3193: 3191: 3179: 3175: 3160: 3156: 3149: 3142: 3138: 3132: 3128: 3127: 3125: 3118: 3109: 3105: 3101: 3099: 3096: 3095: 3074: 3062: 3058: 3043: 3039: 3028: 3016: 3012: 3001: 2989: 2985: 2983: 2980: 2979: 2978:So for step 1: 2949: 2921: 2920: 2906: 2892: 2871: 2867: 2855: 2851: 2838: 2829: 2825: 2822: 2821: 2810: 2790: 2773: 2760: 2748: 2731: 2714: 2707: 2705: 2694: 2679: 2675: 2660: 2656: 2649: 2642: 2638: 2632: 2627: 2622: 2620: 2611: 2607: 2600: 2591: 2587: 2584: 2583: 2572: 2555: 2551: 2542: 2538: 2536: 2519: 2502: 2489: 2477: 2460: 2453: 2451: 2439: 2435: 2420: 2416: 2409: 2402: 2398: 2392: 2388: 2387: 2385: 2378: 2369: 2365: 2361: 2359: 2356: 2355: 2336: 2332: 2323: 2319: 2310: 2306: 2297: 2293: 2291: 2288: 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(The symbols 1774: 1771: 1770: 1754: 1751: 1750: 1734: 1731: 1730: 1579: 1577: 1574: 1573: 1565: 1509: 1507: 1496: 1492: 1485: 1480: 1467: 1463: 1457: 1453: 1443: 1441: 1418: 1415: 1414: 1407: 1391: 1388: 1387: 1371: 1368: 1367: 1350: 1346: 1344: 1341: 1340: 1323: 1319: 1317: 1314: 1313: 1276: 1255: 1252: 1251: 1220: 1216: 1210: 1206: 1199: 1197: 1182: 1178: 1172: 1168: 1161: 1151: 1147: 1141: 1137: 1130: 1128: 1115: 1104: 1100: 1094: 1090: 1088: 1076: 1072: 1068: 1061: 1057: 1051: 1047: 1037: 1035: 1033: 1030: 1029: 1012: 1008: 1006: 1003: 1002: 986: 983: 982: 979: 973: 970: 964: 948: 945: 944: 928: 925: 924: 900: 896: 890: 886: 884: 872: 868: 864: 857: 853: 847: 843: 833: 831: 819: 815: 807: 804: 803: 799: 778: 775: 774: 770: 753: 749: 738: 735: 734: 730: 726: 698: 694: 686: 684: 681: 680: 669: 652: 620: 616: 614: 611: 610: 587: 583: 562: 558: 550: 547: 546: 545:For this case, 523: 519: 517: 514: 513: 490: 486: 484: 481: 480: 443: 439: 431: 422: 418: 410: 407: 406: 390: 387: 386: 382: 359: 355: 353: 350: 349: 324: 321: 320: 293: 290: 289: 286: 280: 277: 271: 268: 262: 258: 244: 211: 207: 201: 197: 195: 181: 176: 166: 161: 155: 153: 142: 138: 132: 128: 126: 111: 107: 105: 102: 101: 95: 88: 82: 78: 72: 69: 63: 43:back-scattering 28: 23: 22: 15: 12: 11: 5: 5851: 5841: 5840: 5835: 5819: 5818: 5783: 5764:(9): 524–554. 5748: 5729:(6): 479–485. 5713: 5686:(3): 309–317. 5669: 5623: 5619: 5615: 5611: 5607: 5603: 5599: 5590: 5561: 5542: 5507: 5480:(5): 351–357. 5464: 5437:(6): 647–654. 5421: 5406: 5388: 5382:10.1086/141186 5347: 5320: 5285: 5262: 5221: 5192: 5185: 5159: 5124: 5113:(4): 330–335. 5090: 5059: 5032:(5): 448–457. 5012: 4990: 4975: 4968: 4942: 4917: 4887: 4886: 4884: 4881: 4878: 4877: 4858: 4838: 4814: 4811: 4806: 4803: 4796: 4792: 4786: 4782: 4774: 4769: 4766: 4761: 4758: 4755: 4750: 4746: 4728: 4727: 4725: 4722: 4714:titanium white 4689: 4686: 4670: 4666: 4662: 4659: 4656: 4652: 4648: 4645: 4642: 4638: 4634: 4631: 4628: 4625: 4620: 4617: 4613: 4609: 4604: 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Phys 4902: 4895: 4893: 4888: 4873: 4856: 4836: 4812: 4809: 4804: 4801: 4794: 4790: 4784: 4780: 4772: 4767: 4764: 4759: 4756: 4753: 4744: 4733: 4729: 4721: 4719: 4715: 4711: 4707: 4703: 4699: 4695: 4685: 4668: 4664: 4660: 4657: 4654: 4650: 4646: 4643: 4640: 4636: 4632: 4629: 4626: 4623: 4618: 4615: 4611: 4607: 4602: 4599: 4595: 4591: 4588: 4585: 4583: 4576: 4573: 4569: 4561: 4558: 4554: 4550: 4547: 4538: 4534: 4530: 4521: 4517: 4513: 4507: 4504: 4496: 4492: 4488: 4479: 4475: 4471: 4462: 4458: 4454: 4445: 4442: 4438: 4434: 4431: 4423: 4419: 4410: 4407: 4400: 4396: 4393: 4386: 4382: 4376: 4371: 4367: 4360: 4355: 4351: 4347: 4345: 4338: 4335: 4331: 4323: 4320: 4316: 4312: 4309: 4300: 4296: 4292: 4283: 4279: 4275: 4269: 4266: 4258: 4254: 4250: 4241: 4237: 4233: 4224: 4216: 4212: 4206: 4202: 4198: 4195: 4188: 4184: 4178: 4174: 4167: 4165: 4158: 4155: 4151: 4126: 4122: 4118: 4093: 4090: 4083: 4062: 4058: 4054: 4051: 4046: 4042: 4021: 4017: 4013: 4010: 4005: 4001: 3980: 3976: 3972: 3969: 3964: 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2241: 2238: 2234: 2213: 2208: 2205: 2201: 2192: 2188: 2183: 2176: 2172: 2169: 2168:Frank Benford 2158: 2144: 2124: 2104: 2084: 2064: 2051: 2038: 2033: 2030: 2025: 2022: 2016: 2013: 2009: 2003: 1999: 1993: 1990: 1986: 1980: 1976: 1969: 1966: 1959: 1955: 1949: 1945: 1939: 1936: 1931: 1927: 1921: 1918: 1915: 1912: 1909: 1906: 1897: 1891: 1888: 1885: 1879: 1876: 1870: 1864: 1861: 1853: 1852:Dahm equation 1848: 1832: 1828: 1805: 1801: 1792: 1776: 1756: 1736: 1716: 1710: 1707: 1704: 1698: 1695: 1692: 1683: 1677: 1674: 1671: 1665: 1659: 1656: 1653: 1647: 1644: 1641: 1635: 1632: 1626: 1623: 1620: 1614: 1611: 1608: 1602: 1599: 1596: 1593: 1590: 1587: 1569: 1560: 1557: 1538: 1534: 1528: 1525: 1522: 1519: 1516: 1513: 1504: 1497: 1493: 1486: 1481: 1477: 1473: 1468: 1458: 1454: 1450: 1447: 1438: 1432: 1429: 1426: 1420: 1413: 1412: 1411: 1393: 1373: 1351: 1347: 1324: 1320: 1311: 1307: 1306:Dahm equation 1303: 1299: 1294: 1292: 1288: 1283: 1281: 1271: 1257: 1248: 1235: 1230: 1221: 1217: 1211: 1207: 1194: 1183: 1179: 1173: 1169: 1152: 1148: 1142: 1138: 1125: 1120: 1117: 1112: 1105: 1101: 1095: 1091: 1085: 1073: 1069: 1062: 1048: 1044: 1041: 1013: 1009: 988: 976: 967: 950: 930: 921: 908: 901: 897: 891: 887: 881: 869: 865: 858: 844: 840: 837: 828: 816: 809: 794: 780: 754: 746: 743: 725: 724:photon energy 707: 695: 688: 678: 674: 664: 662: 656: 647: 629: 626: 617: 593: 588: 584: 580: 577: 571: 568: 563: 559: 555: 552: 532: 529: 524: 520: 499: 496: 487: 478: 475: 461: 455: 452: 449: 444: 440: 432: 428: 423: 419: 415: 412: 392: 368: 365: 356: 335: 332: 329: 326: 318: 315: 314: 313: 311: 295: 283: 274: 265: 255: 253: 249: 239: 221: 212: 208: 202: 198: 192: 189: 182: 177: 173: 167: 162: 158: 150: 143: 139: 133: 129: 123: 120: 117: 108: 100: 99: 98: 92: 85: 75: 66: 61: 57: 51: 48: 44: 40: 35: 33: 19: 5796: 5792: 5786: 5761: 5757: 5751: 5726: 5722: 5716: 5683: 5679: 5672: 5631: 5627: 5593: 5551: 5545: 5520: 5516: 5510: 5477: 5473: 5467: 5434: 5430: 5424: 5397: 5391: 5364: 5360: 5350: 5333: 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4559:15 4321:15 4139:: 3897:8. 3665:21 3597:4. 2963:. 2918:0. 1028:: 630:0. 369:1. 5815:. 5803:: 5780:. 5768:: 5745:. 5733:: 5710:. 5698:: 5690:: 5666:. 5646:: 5638:: 5624:2 5620:2 5616:2 5614:) 5612:3 5608:2 5604:2 5602:) 5600:3 5587:) 5573:. 5539:. 5527:: 5521:6 5504:. 5492:: 5484:: 5461:. 5449:: 5441:: 5418:. 5385:. 5379:: 5371:: 5344:. 5340:: 5317:. 5313:: 5305:: 5259:. 5245:: 5239:9 5218:. 5189:. 5175:: 5156:. 5150:: 5144:3 5121:. 5117:: 5087:. 5083:: 5056:. 5044:: 5036:: 4987:. 4972:. 4958:: 4939:. 4857:H 4837:s 4813:r 4810:s 4805:2 4802:+ 4795:2 4791:r 4785:2 4781:s 4768:r 4765:s 4760:+ 4757:1 4754:= 4745:H 4700:( 4665:/ 4661:1 4658:= 4651:/ 4647:8 4637:/ 4633:2 4627:1 4624:= 4619:y 4616:x 4612:R 4603:y 4600:x 4596:T 4589:1 4586:= 4577:y 4574:x 4570:A 4562:, 4555:/ 4551:8 4548:= 4542:) 4539:2 4535:/ 4531:1 4528:( 4525:) 4522:8 4518:/ 4514:1 4511:( 4505:1 4500:) 4497:2 4493:/ 4489:1 4486:( 4483:) 4480:4 4476:/ 4472:1 4469:( 4466:) 4463:4 4459:/ 4455:1 4452:( 4446:+ 4443:2 4439:/ 4435:1 4432:= 4424:y 4420:R 4414:) 4411:x 4405:( 4401:R 4394:1 4387:y 4383:R 4377:2 4372:x 4368:T 4361:+ 4356:x 4352:R 4348:= 4339:y 4336:x 4332:R 4324:, 4317:/ 4313:2 4310:= 4304:) 4301:2 4297:/ 4293:1 4290:( 4287:) 4284:8 4280:/ 4276:1 4273:( 4267:1 4262:) 4259:4 4255:/ 4251:1 4248:( 4245:) 4242:2 4238:/ 4234:1 4231:( 4225:= 4217:y 4213:R 4207:x 4203:R 4196:1 4189:y 4185:T 4179:x 4175:T 4168:= 4159:y 4156:x 4152:T 4127:8 4123:/ 4119:1 4097:) 4094:x 4088:( 4084:R 4063:2 4059:/ 4055:1 4052:= 4047:y 4043:T 4022:2 4018:/ 4014:1 4011:= 4006:y 4002:R 3981:4 3977:/ 3973:1 3970:= 3965:x 3961:T 3940:2 3936:/ 3932:1 3929:= 3924:x 3920:R 3893:/ 3889:1 3886:= 3880:) 3877:2 3873:/ 3869:1 3866:( 3863:0 3857:1 3852:) 3849:2 3845:/ 3841:1 3838:( 3835:) 3832:2 3828:/ 3824:1 3821:( 3818:) 3815:2 3811:/ 3807:1 3804:( 3798:+ 3792:= 3784:x 3780:R 3774:) 3771:y 3765:( 3761:R 3754:1 3747:x 3743:R 3737:2 3732:y 3728:T 3721:+ 3716:y 3712:R 3708:= 3703:x 3700:y 3696:R 3685:y 3681:x 3661:R 3638:) 3635:x 3629:( 3625:R 3593:/ 3589:1 3586:= 3583:2 3579:/ 3575:1 3569:4 3565:/ 3561:1 3555:1 3552:= 3547:y 3544:x 3540:R 3531:y 3528:x 3524:T 3517:1 3514:= 3505:y 3502:x 3498:A 3490:, 3487:2 3483:/ 3479:1 3476:= 3470:0 3467:) 3464:2 3460:/ 3456:1 3453:( 3447:1 3442:0 3439:) 3436:2 3432:/ 3428:1 3425:( 3422:) 3419:2 3415:/ 3411:1 3408:( 3402:+ 3399:2 3395:/ 3391:1 3388:= 3380:y 3376:R 3370:) 3367:x 3361:( 3357:R 3350:1 3343:y 3339:R 3333:2 3328:x 3324:T 3317:+ 3312:x 3308:R 3304:= 3295:y 3292:x 3288:R 3280:, 3277:4 3273:/ 3269:1 3266:= 3260:) 3257:0 3254:( 3251:) 3248:2 3244:/ 3240:1 3237:( 3231:1 3226:) 3223:2 3219:/ 3215:1 3212:( 3209:) 3206:2 3202:/ 3198:1 3195:( 3189:= 3181:y 3177:R 3171:) 3168:x 3162:( 3158:R 3151:1 3144:y 3140:T 3134:x 3130:T 3123:= 3114:y 3111:x 3107:T 3083:, 3080:2 3076:/ 3072:1 3069:= 3064:y 3060:T 3056:, 3053:0 3050:= 3045:y 3041:R 3037:, 3034:2 3030:/ 3026:1 3023:= 3018:x 3014:T 3010:, 3007:2 3003:/ 2999:1 2996:= 2991:x 2987:R 2973:y 2969:x 2959:A 2955:T 2951:R 2915:= 2912:2 2908:/ 2904:1 2898:2 2894:/ 2890:1 2884:1 2881:= 2876:y 2873:x 2869:R 2860:y 2857:x 2853:T 2846:1 2843:= 2834:y 2831:x 2827:A 2819:, 2816:3 2812:/ 2808:2 2805:= 2799:) 2796:2 2792:/ 2788:1 2785:( 2782:) 2779:2 2775:/ 2771:1 2768:( 2762:1 2757:) 2754:2 2750:/ 2746:1 2743:( 2740:) 2737:2 2733:/ 2729:1 2726:( 2723:) 2720:2 2716:/ 2712:1 2709:( 2703:+ 2700:2 2696:/ 2692:1 2689:= 2681:y 2677:R 2671:) 2668:x 2662:( 2658:R 2651:1 2644:y 2640:R 2634:2 2629:x 2625:T 2618:+ 2613:x 2609:R 2605:= 2596:y 2593:x 2589:R 2581:, 2578:3 2574:/ 2570:1 2567:= 2561:4 2557:/ 2553:3 2548:4 2544:/ 2540:1 2534:= 2528:) 2525:2 2521:/ 2517:1 2514:( 2511:) 2508:2 2504:/ 2500:1 2497:( 2491:1 2486:) 2483:2 2479:/ 2475:1 2472:( 2469:) 2466:2 2462:/ 2458:1 2455:( 2449:= 2441:y 2437:R 2431:) 2428:x 2422:( 2418:R 2411:1 2404:y 2400:T 2394:x 2390:T 2383:= 2374:y 2371:x 2367:T 2338:y 2334:R 2330:, 2325:y 2321:T 2317:, 2312:x 2308:R 2304:, 2299:x 2295:T 2272:y 2269:x 2265:A 2242:y 2239:x 2235:R 2214:, 2209:y 2206:x 2202:T 2191:y 2187:x 2145:s 2125:k 2105:S 2085:K 2065:T 2055:R 2039:. 2034:S 2031:K 2026:2 2023:= 2017:x 2014:d 2010:/ 2004:0 2000:r 1994:x 1991:d 1987:/ 1981:0 1977:a 1970:2 1967:= 1960:0 1956:r 1950:0 1946:a 1940:2 1932:r 1928:a 1925:) 1922:r 1919:2 1913:a 1907:2 1904:( 1898:= 1895:) 1892:T 1889:, 1886:R 1883:( 1880:A 1877:= 1874:) 1871:R 1868:( 1865:F 1862:2 1833:s 1806:a 1757:s 1737:k 1717:, 1714:) 1711:d 1702:( 1693:= 1690:] 1687:) 1684:d 1681:) 1678:s 1675:+ 1672:k 1669:( 1663:[ 1654:= 1651:) 1648:d 1645:s 1639:( 1630:) 1627:d 1624:k 1618:( 1609:= 1606:) 1603:t 1600:c 1597:e 1594:r 1591:i 1588:d 1585:( 1581:T 1539:r 1535:a 1532:) 1529:r 1526:2 1520:a 1514:2 1511:( 1505:= 1498:n 1494:R 1487:2 1482:n 1478:T 1469:2 1465:) 1459:n 1455:R 1448:1 1445:( 1436:) 1433:T 1430:, 1427:R 1424:( 1421:A 1408:R 1394:a 1374:n 1352:n 1348:T 1325:n 1321:R 1310:R 1302:R 1258:S 1236:. 1231:S 1227:) 1222:i 1218:K 1212:i 1208:c 1204:( 1189:) 1184:i 1180:S 1174:i 1170:c 1166:( 1158:) 1153:i 1149:K 1143:i 1139:c 1135:( 1126:= 1121:S 1118:K 1113:= 1106:0 1102:r 1096:0 1092:a 1086:= 1074:R 1070:2 1063:2 1059:) 1049:R 1042:1 1039:( 1014:i 1010:c 989:i 978:0 975:r 969:0 966:a 951:S 931:K 909:. 902:0 898:r 892:0 888:a 882:= 870:R 866:2 859:2 855:) 845:R 838:1 835:( 826:) 817:R 813:( 810:F 781:a 771:E 755:2 751:) 747:E 744:a 741:( 731:E 727:E 708:E 705:) 696:R 692:( 689:F 627:= 618:R 597:) 594:X 589:0 585:a 581:2 575:( 564:g 560:R 556:= 553:R 533:. 530:X 525:0 521:a 500:0 497:= 492:c 488:R 462:. 459:) 456:1 453:+ 450:X 445:0 441:r 437:( 433:/ 429:X 424:0 420:r 416:= 413:R 393:X 383:R 366:= 357:R 336:, 333:0 330:= 327:a 310:X 296:T 285:∞ 282:R 276:c 273:R 267:g 264:R 259:R 222:. 213:0 209:r 203:0 199:a 193:2 190:+ 183:2 178:0 174:r 168:2 163:0 159:a 144:0 140:r 134:0 130:a 124:+ 121:1 118:= 109:R 94:0 91:r 89:/ 87:0 84:a 77:0 74:r 68:0 65:a 20:)

Index

Kubelka-Munk approximation
two-stream approximation
back-scattering
remission
albedo
Kubelka–Munk equation
hiding power
opacity
Kramers–Kronig relations
band-gap
Tauc plot
photon energy
diffuse reflectance spectroscopy
infrared spectroscopy
potassium bromide
near-infrared spectroscopy
Dahm equation
extinction coefficient
Dahm equation
Frank Benford


RGB color model
CMYK
phthalo blue
quinacridone magenta
Hansa yellow
titanium white
latent space

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