Ofdetector. The size apertures, is essential to make full use from the detector. The of the photosensitive location area on the detector is 22.5 mm 22.5which which can be divided from the detector is 22.5 mm 22.5 mm, mm, is divided evenly size of the photosensitive region from the detector is 22.five mm 22.5 mm, that is divided size of the photosensitive into nine places. locations. The final distance design style distance amongst the sub-coded apertures isand, is 7.4 mm 7.4 evenly into nineThe finalThe final design involving the sub-coded apertures apertures is 7.4 evenly into nine regions. distance between the sub-coded finally, an image an image with extra 600600 600 spatial pixels may be obtained. with Pramipexole dihydrochloride Cancer greater than 600 than spatial pixels can be obtained. mm and, lastly, an image with more than 600 600 spatial pixels may be obtained. mm and, finally, The distance among the protective glass of detector as well as the the photosensitive The distance involving the protective glass of thethe detector and photosensitive surThe distance in between the protective glass with the detector plus the photosensitive sursurface is 0.615 mm, the thickness of your glass is 1 mm, and the thickness of the coding face isis 0.615 mm, the thickness in the glass is 1 mm, plus the thickness of your coding aperface 0.615 mm, the thickness of the glass is 1 mm, and also the thickness of the coding aperaperture substrate glass is two.7 mm, so the distance involving the coding aperture and also the ture substrate glass isis two.7 mm, so the distance between the coding aperture plus the photure substrate glass two.7 mm, so the distance in between the coding aperture as well as the phophotosensitive surface is four.315 mm. tosensitive surface isis four.315 mm. tosensitive surface four.315 mm. the multispectral coding aperture is shown in Figure 11. The Disperse Red 1 web particular composition from the particular composition of your multispectral coding aperture isis shown in Figure 11. The specific composition from the multispectral coding aperture shown in Figure 11.(a) (a)(b) (b)Figure 11. (a) isisadesigned 31 31 SDTA as sub-coded aperture, (b) is multispectralcoded aperture, Figure 11. (a) isa adesigned 31 31 SDTA sub-coded aperture, (b) isis multispectralcoded aperture, Figure 11. (a) developed 31 31 SDTA as aperture, (b) multispectral coded aperture, which consists of nine sub-encoding apertures and nine filters; each and every filter covers a asub-encoding which consists of nine sub-encoding apertures and nine filters; each and every filter covers a sub-encoding which consists of nine sub-encoding apertures and nine filters; every filter covers sub-encoding aperture, plus the interval in between adjacent sub-encoding apertures isis 7.4 mm. aperture, along with the interval among adjacent sub-encoding apertures 7.4 mm. aperture, plus the interval among adjacent sub-encoding apertures is 7.four mm.As shown in Figure 12, the multispectral encoding aperture isis coupled together with the proAs shown in Figure 12, the multispectral encoding aperture coupled with together with the Figure 12, the multispectral encoding aperture is coupled the proAs shown tective glass in the detector chipchipmake thethe distance betweenencoding aperture and protective glass thethe detector to create the distance in between the the encoding aperture tective glass of of detector chip to to make distance amongst the encoding aperture and the photosensitive plane as closeclose possibleto ensure that that diverse bands will not as well as the photosensitive planecloseas feasible to ensure thatdifferent bands is not going to be the photosensitive plane as a.