摘要:
Provided are an imaging apparatus and a radiation detecting apparatus comprising a photoelectric conversion layer for converting an incident light into a charge, an electrode layer formed on the photoelectric conversion layer, first and second protective layers formed on the electrode layer, and a transparent electrode disposed between the electrode layer and the first protective layer, wherein a relation of nc1−nc2≦1.5 is met, where nc1 and nc2 are respectively refractive indices of the first and second protective layers.
摘要翻译:提供了一种成像装置和放射线检测装置,其包括用于将入射光转换成电荷的光电转换层,形成在光电转换层上的电极层,形成在电极层上的第一和第二保护层,以及布置的透明电极 在所述电极层和所述第一保护层之间,其中满足n C 1 -n C 2 <= 1.5的关系,其中n C 1和 n2c2分别是第一和第二保护层的折射率。
摘要:
A radiation detecting apparatus comprises a wavelength conversion element for converting a radiation into a light, a photoelectric conversion layer for converting the light into a charge, an electrode layer formed on the photoelectric conversion layer, a first protective layer formed on the electrode layer, and a second protective layers formed on the first protective layer, wherein refractive indices nc1 and nc2 of the first and second protective layers meet a relation: nci−nc2≦1.5, thereby providing a high sensitivity of detecting the radiation.
摘要:
By forming a redundant circuit of an extra wiring accompanied with no decrease in an aperture ratio for a photoelectric conversion element, the yield is prevented from being reduced due to wire breaking during a panel manufacturing process.A gate line Vg4 and a Vg redundant wiring are electrically insulated and are arranged so as to form a crossing G of the upper and lower lines. Since a Vg redundant wiring Y is formed concurrently with a Sig line, there is no need for additional manufacturing steps to form the Vg redundant wiring Y. If a breaking occurs in the gate line Vg4, the gate line Vg4 and the Vg redundant wiring Y are electrically connected to each other by irradiating the crossing G with a laser. Therefore, a gate drive pulse is also applied to a thin film transistor on the broken line through the Vg redundant wiring Y. Thus, any lowering in yield due to a breaking of the gate line Vg4 can be prevented without any decrease in the aperture ratio for the photoelectric conversion element.
摘要:
By forming a redundant circuit of an extra wiring accompanied with no decrease in an aperture ratio for a photoelectric conversion element, the yield is prevented from being reduced due to wire breaking during a panel manufacturing process. A gate line Vg4 and a Vg redundant wiring are electrically insulated and are arranged so as to form a crossing G of the upper and lower lines. Since a Vg redundant wiring Y is formed concurrently with a Sig line, there is no need for additional manufacturing steps to form the Vg redundant wiring Y. If a breaking occurs in the gate line Vg4, the gate line Vg4 and the Vg redundant wiring Y are electrically connected to each other by irradiating the crossing G with a laser. Therefore, a gate drive pulse is also applied to a thin film transistor on the broken line through the Vg redundant wiring Y. Thus, any lowering in yield due to a breaking of the gate line Vg4 can be prevented without any decrease in the aperture ratio for the photoelectric conversion element.
摘要:
By forming a redundant circuit of an extra wiring accompanied with no decrease in an aperture ratio for a photoelectric conversion element, the yield is prevented from being reduced due to wire breaking during a panel manufacturing process.A gate line Vg4 and a Vg redundant wiring are electrically insulated and are arranged so as to form a crossing G of the upper and lower lines. Since a Vg redundant wiring Y is formed concurrently with a Sig line, there is no need for additional manufacturing steps to form the Vg redundant wiring Y. If a breaking occurs in the gate line Vg4, the gate line Vg4 and the Vg redundant wiring Y are electrically connected to each other by irradiating the crossing G with a laser. Therefore, a gate drive pulse is also applied to a thin film transistor on the broken line through the Vg redundant wiring Y. Thus, any lowering in yield due to a breaking of the gate line Vg4 can be prevented without any decrease in the aperture ratio for the photoelectric conversion element.
摘要:
Provided are imaging apparatus and radiation detecting apparatus with high sensitivity. An imaging apparatus has a photoelectric conversion layer 16 for converting incident light into charge, on an insulating substrate, an electrode layer 17 formed on the photoelectric conversion layer 16, and a protective layer 37 formed on the electrode layer 17, and satisfies relations of na−nb≦1.5 and nb−nc≦1.5 where na is a refractive index of the photoelectric conversion layer 16, nb a refractive index of the electrode layer 17, and nc a refractive index of the protective layer 37.
摘要:
This invention is to provide a radiation image sensing apparatus capable of automatically adjusting an incident radiation dose without requiring high-speed driving while suppressing any attenuation of the radiation before detection, and a method of manufacturing the same. To accomplish this, a read TFT (1) is formed on an insulating substrate (11). The semiconductor layer (19) and n+-semiconductor layer (20) of an MIS photoelectric conversion element (2) are formed on a second insulating layer (18) that covers the read TFT (1) to be aligned with source and drain electrodes (16) functioning as lower electrodes. The semiconductor layer (21) of a TFT sensor (3) is formed to be aligned with a gate electrode (17) when viewed from the upper side. The semiconductor layers (19, 21) are formed from the same layer. The upper electrode (22) of the MIS photoelectric conversion element (2) is formed on the n+-semiconductor layer (20). Two ohmic contact layers (23) are formed on the semiconductor layer (21). Source and drain electrodes (24) are formed on the two ohmic contact layers (23), respectively.
摘要:
This invention is to provide a radiation image sensing apparatus capable of automatically adjusting an incident radiation dose without requiring high-speed driving while suppressing any attenuation of the radiation before detection, and a method of manufacturing the same. To accomplish this, a read TFT (1) is formed on an insulating substrate (11). The semiconductor layer (19) and n+-semiconductor layer (20) of an MIS photoelectric conversion element (2) are formed on a second insulating layer (18) that covers the read TFT (1) to be aligned with source and drain electrodes (16) functioning as lower electrodes. The semiconductor layer (21) of a TFT sensor (3) is formed to be aligned with a gate electrode (17) when viewed from the upper side. The semiconductor layers (19, 21) are formed from the same layer. The upper electrode (22) of the MIS photoelectric conversion element (2) is formed on the n+-semiconductor layer (20). Two ohmic contact layers (23) are formed on the semiconductor layer (21). Source and drain electrodes (24) are formed on the two ohmic contact layers (23), respectively.
摘要:
According to a radiation imaging apparatus, any separate AEC sensor need not be prepared. Additionally, the apparatus main body can be made compact. To accomplish this, the radiation imaging apparatus has a first optical conversion element that converts incident radiation into an electrical signal, and generates image information on the basis of the electrical signal output from the first optical conversion element. Below a portion that is aligned to the gap between the first optical conversion elements, a plurality of second optical conversion elements which detect the incident amount of the radiation from the gap are formed. Exposure control for the radiation or control of the optical conversion elements is executed on the basis of the detection result by the second optical conversion element.
摘要:
According to a radiation imaging apparatus, any separate AEC sensor need not be prepared. Additionally, the apparatus main body can be made compact. To accomplish this, the radiation imaging apparatus has a first optical conversion element that converts incident radiation into an electrical signal, and generates image information on the basis of the electrical signal output from the first optical conversion element. Below a portion that is aligned to the gap between the first optical conversion elements, a plurality of second optical conversion elements which detect the incident amount of the radiation from the gap are formed. Exposure control for the radiation or control of the optical conversion elements is executed on the basis of the detection result by the second optical conversion element.