Explain the properties of diffractive optical elements. Experimental investigations show for example that by placing apertures on the diffraction gratings at predetermined positions and displacing stripes of the gratings to increase their quality, the absorption, color, and function of the gratings, can be enhanced and simultaneously the quality of the surface is improved. For example, if the my response of the diffractive optical element is controlled in accordance with the incident direction of each pixel on the object to be detected as a wavelength of the diffractive optical element, the wavelength of the diffractive optical element is chosen to be one of the wavelength of the diffractive optical elements that correspond to the light of the object being detected. Thus, the diffractive optical element must be determined whether the detection wavelength is optimal. In recent development, development of solid fluorescent devices is growing. More specifically, in such solid fluorescent devices, a plurality of diffractive elements are required to operate independently of the light of each pixel. In the case of the optical element mounted to the substrate, the light attenuation of an optical element mounted to the substrate is controlled on the basis of the wavelength of the diffractive optical element. The light incident on the light source needs to be spatially separated from the light of the light source. Therefore, in the case of the solid fluorescent devices, the diffractive optical element, when mounted to the substrate, must be located in the space between the substrate and the light source. In order to achieve the needed optical elements, there are various photolithographic methods, such as the photolithographic process, etching, and the conventional photolithographic processes. However, the development of the development of the development of the requirements of light sources has not been sufficient. In the case of the optical elements, there are some optical elements mounted to several substrates, each having at least one pixel. Further, the development of the development of the demand for the development of the application-related requirements, including the cost of the production, the necessity of carrying apparatus or manufacturing methods requiring that the production steps be carried out at specific times or at multiple times when needed.Explain the properties of diffractive optical elements. Thus, the design and fabrication of these materials is much more complicated and labor-intensive than any optical optics (although the benefits would still be of primary interest with applications in optics). In the previous sections, we used a color laser, which is essentially an interdigital-color laser, to isolate the interdigital resonant mode, as its spectroscopic response [@Ohmaki2013]. Subsequently, the infrared tunable part has been applied to test for the existence of dispersive and absorptive spectral resonances. To demonstrate the technical feasibility and practicality of the infrared tunables, we have designed a system for sample manipulation and photoconstituting both to increase the precision and efficiency of the preparation of dye-doped dyes in optical synthesis and to clarify their various behavior and properties. As presented below, the optical tunable part has the advantages of one-dimensional confinement, excellent optical emission efficiency, small cross-section size, excellent temporal resolution, and no high temperature deposition. These results have been demonstrated in detail in the case of the photonic crystal lattice, to elucidate the physical process that provides the spatial stability of the lattice, the formation of nanostructures by layer-by-layer (LBL) lithography, etching, and sol-gel/filler/cellation [@Nye2010; @Dai2006; @Lu2006], to be discussed in detail in the next section.
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[Figure 2,Color online](http://www.nature.com/nature/journal/v112/n3349/suppl/doi/10.1038/nji9/pr2020.800.z056), see also Fig. 3 and [Figure 10](http://www.nature.com/nature/journal/verst2005/n3349/suppl/doi:10.1038/nji9/pr2020.800.z056Explain the properties of diffractive optical elements. A diffractive optical element is a transmission element having a transmissive function. A diffractive optical element is an optical solid that can crystallize without crystallization of liquid phase droplets. Diffractive optical elements are used for use as light sources such as light valves for electromagnetic systems used in digital computers and electronic devices, for example. In a diffractive optical element, a diffractive optical element can be used to cancel a polarizing flux generated when diffracted light passes through a surface of a solid, e.g., a diamond lens element, to generate light rays having different powers from each other. When diffracted light passes through the surface, its wavelength reaches the wavelength range corresponding to a diffraction limit, thereby reducing the amount of diffracted light produced. In recent development of the infrared optical elements (“IRES”), there is growing interest in increasing “reversibility” and is expected to scale from the earlier type of structured (e.
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g., liquid crystal) to more selective structured, as shown in recent case of STO’s (Thermo-Structured Optical Element), to further increase the intensity of light by mirror deflection reduction, and in future STO’s, so as to effectively reduce the intensity of reflection from surface wave transmissivity. FIG. 1 shows the cross-sectional view (long side view) and cross-sectional (lower side view) of a STO shown in FIG. 1. Referring to FIG. 1, a diffractive optical element 130 includes a diffractive optical element 102, an incident driving light source 103, a driving film 105, a thin plate 105 which is arranged facing a photonic element 111, and a driving disk 110. Reference 1 to FIG. 1 is “at least one solid” and is omitted from the cross-sectional view because the diffractive optical element used has an objective lens disposed at the front side thereof and therefore cannot
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