near-infrared band 中文意思是什麼
near-infrared band
解釋
近紅外波段-
Hydrogen, fluorin, carbon and oxygen are familiar elements in ps confirmed by different experiments. porous silicon can radiate strong near infrared, visible and near ultraviolet light, but whole s band is most interested in
經過陽極化處理后得到的多孔硅能發射較強的近紅外、可見和近紫外光，而人們最關注的是ps在整個可見光波段（ sband ）的發光。 -
In the first part, the basic knowledge of particle scattering in meteorology and physics was introduced. the particles to be discussed include aerosol particles, fog droplets and raindrops and the em wave band in the discussion is near - infrared. in the second part, the mie theory was briefly reviewed and was applied to investigate the scattering characteristics of spherical atmospheric particles, the result shows that in the visibility measurement meter using forward - scattering method, when the working wavelegth is between 0. 8 m ~ 2 m, the scattering angle is between 25 ~ 40, the distinguishability and the relative scattering intensity would be better than those under other conditions. in the third part, the superellipsoid was used to describe a wide range of shapes such as spheres. ellipsoids and cylinders. an improved t - matrix method which can be used to calculate arbitry shaped particle ' s scattering field was introduced, and the scattering characteristics of non - spherical atmospheric particles was investigated with this method
計算結果表明，從相對散射強度、同一方向上不同粒子散射的可區分程度來看，在散射式能見度探測儀器中，工作波長介於0 . 86 m 2 m ，探測角度選取前向25度40度時，探測的結果將會是比較理想的。第三部分中，使用超橢球方程來統一描述各種非球形粒子的形狀，然後使用t矩陣方法計算了一些形狀的非球形粒子的近紅外散射特性。另外，在本文中還針對球形粒子的散射場提供了一種三維可視化方法，使對散射場強度的空間分佈的理解更加簡單，直觀。 -
Near infrared band
近紅外區段 -
It is proved that it has many attractive features ( 1 ) its applicable spectral range is broad, many liquid crystals have very large birefringence and good transparency in both near ultraviolet band, visible band and infrared band
本文重點研究了可調諧液晶電光濾光片，它的主要優點有： 1 、可應用的光譜范圍特別寬。許多液晶在紫外、可見光、紅外都具有較大的雙折射率和良好的透射性。 -
Photonic band gap ( pbg ) crystals endow people the power to control and manipulate photons, but fabrication of photonic crystals, especially those that work at the near - infrared and visible wavelength is a hard work, requiring high - quality materials
光子帶隙晶體使人們可以有效地控制和操縱光子，但是構建光子晶體，尤其是近紅外及可見光區域的光子晶體是一個困難的工作，它對材料提出了很高的要求。
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