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Image sensors

BE-1042 Nex X ray imaging sensors. Mr. C. Frdjdh Resam Medical Syatema AB... [Pg.935]

Fig. 4. Some electronic device applications using amorphous silicon (a) solar cell, (b) thin-fiLm transistor, (c) image sensor, and (d) nuclear particle detector. Fig. 4. Some electronic device applications using amorphous silicon (a) solar cell, (b) thin-fiLm transistor, (c) image sensor, and (d) nuclear particle detector.
The whole NMR imaging sensor system usually consists of a magnet, a shim system mounted inside the room-temperature bore of the magnet, a gradient system mounted inside the shim system and the rf coil mounted inside the gradient system. In the case of a saddle coil or a birdcage resonator, open access can be realized from the bottom to the top of the entire system with the coil diameter. [Pg.55]

Apart from the sampling principle, sensor layouts can also be subdivided into point-probe sensors, giving averaged information about the analytes within the sensitive field, and imaging sensors, delivering a spatially as well as spectrally resolved image of the investigated area. [Pg.129]

Electron-hole pairs are only produced in areas illuminated by the light and spatially resolved photocurrents can be achieved using a focused scanning beam. Therefore the main advantage of LAPS is that it can work as a chemical imaging sensor the light-addressability of the LAPS allows one to obtain a two-dimensional map of the distribution of the ion concentration. [Pg.120]

The first LAPS utilized silicone nitride (S3N4) as a pH-sensitive layer [68], A light-addressable high resolution pH imaging sensor was applied to the detection of spatially resolved metabolic activity of Escherichia coli colonies on agar medium [69], For a silicone substrate thickness of 20 pm the reported spatial resolution was about 10 pm. The observed pH distribution was in good agreement with the results of simulation based on a two-dimensional diffusion model. [Pg.120]

M. Nakao, T. Yoshinobu, and H. Lwasaki, Scanning-laser-beam semicomductor pH imaging sensor. Sens. Actuators, B 20,119—123 (1994). [Pg.135]

S. Kaneko, Solid-State Image Sensor Masakiyo Matsumura, Charge-Coupled Devices M.A. Bosch, Optical Recording... [Pg.651]

G Yu, J Wang, J McElvain, and AJ Heeger, Large-area, full-color image sensors made with semiconducting polymers, Adv. Mater., 10 1431-1434, 1998. [Pg.38]

Image Sensors and Signal Processor for Digital Still Cameras,... [Pg.689]

Cluster emission, 27 305 Cluster glass transitions, 74 469 Clustering techniques, 6 16-17 Cluster sampling, 26 1018 C-Methylcalix[4]resorcinarene, 74 165 CMOS image sensors, fabrication... [Pg.190]

See also CMOS image sensors bipolar transistors with, 22 249 improving performance of, 22 257 logic circuits with, 22 251-253 Moore s law and device scaling and,... [Pg.204]

Image-receiving layers, in instant photography, 19 279-282 Image sensors... [Pg.463]

Figure 4.2 Schematic diagram of a charge-coupled device (CCD) imaging sensor. It consists of a semiconducting substrate (silicon), topped by a conducting material (doped polysilicon), separated by an insulating layer of silicon dioxide. By applying charge to the polysilicon electrodes, a localized potential well is formed, which traps the charge created by the incident light as it enters the silicon substrate. Figure 4.2 Schematic diagram of a charge-coupled device (CCD) imaging sensor. It consists of a semiconducting substrate (silicon), topped by a conducting material (doped polysilicon), separated by an insulating layer of silicon dioxide. By applying charge to the polysilicon electrodes, a localized potential well is formed, which traps the charge created by the incident light as it enters the silicon substrate.
Schematic diagram of a charge-coupled device (CCD) imaging sensor 76... [Pg.415]

P. G. LeComber and W. E. Spear, The Development of the a-Si H Field-Effect Transistor and Its Possible Applications D. G. Ast, a-Si H FET-Addressed LCD Panel S. Kaneko, Solid-State Image Sensor M. Matsumura, Charge-Coupled Devices M. A. Bosch, Optical Recording A. D Amico and G. Fortmato, Ambient Sensors H. Kukimoto, Amorphous Light-Emitting Devices R. J. Phelan, Jr., Fast Detectors and Modulators J. I. Pankove, Hybrid Structures... [Pg.295]

Smart CMOS Image Sensors and Applications, Jun Ohta... [Pg.286]

M. Nakao, T. Yoshinobu and H. Iwasaki, Improvement of spatial resolution of a laser-scanning pH-imaging sensor, Jpn. J. Appl. Phys. Pt. 2 Lett., 33 (3A) (1994) L394-L397. [Pg.119]

M. Nakao, S. Inoue, T. Yoshinobu and H. Iwasaki, High-resolution pH imaging sensor for microscopic observation of microorganisms, Sens. Actuators B Chem., 34(1-3) (1996) 234-239. [Pg.119]

T. Yoshinobu, N. Oba, H. Tanaka and H. Iwasaki, High-speed and high-precision chemical-imaging sensor, Sens. Actuators A Phys., 51(2-3) (1996) 231-235. [Pg.120]


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See also in sourсe #XX -- [ Pg.3 , Pg.4 , Pg.111 , Pg.139 , Pg.140 , Pg.141 , Pg.142 , Pg.143 , Pg.144 , Pg.145 , Pg.146 , Pg.147 , Pg.148 , Pg.149 , Pg.150 , Pg.151 , Pg.152 , Pg.153 , Pg.154 , Pg.155 , Pg.156 ]

See also in sourсe #XX -- [ Pg.86 , Pg.105 ]




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