Abstract A photoelectric converting device comprises a plurality of photoelectric converting cells. Each of the cells has a semiconductor transistor consisting of two main electrode regions formed of a semiconductor of one conductivity type and a control electrode region formed of a semiconductor of the opposite conductivity type and a capacitor for controlling a potential of the control electrode region in the floating state. Each of the photoelectric converting cells accumulates carriers generated due to an incident light into the control electrode region and controls an output by an accumulated voltage generated due to the accumulated carriers by controlling the potential of the control electrode region in the floating state through the capacitor. Each of the photoelectric converting cells consists of a first portion having a high photoelectric converting efficiency and a second portion which is formed with at least an electrode of the capacitor and an electrode of the other main electrode regions, and a width of the first portion is formed narrower than a width of the second portion and the first portion is arranged in a line.
A photoelectric converting device comprising a plurality of photoelectric converting cells which are arranged and each of which has: a semiconductor transistor consisting of two main electrode regions formed of a semiconductor of one conductivity type and a control electrode region formed of a semiconductor of the opposite conductivity type; and a capacitor for controlling a potential of said control electrode region in the floating state, wherein each of said photoelectric converting cells accumulates carriers generated due to an incident light into said control electrode region and controls an output by an accumulated voltage generated due to said accumulated carriers by controlling-the potential of said control electrode region in the floating state through the capacitor, and each of said photoelectric converting cells consists of a first portion having a high photoelectric converting efficiency and a second portion which is formed with at least an electrode of said capacitor and an electrode of the other main electrode region, and a width of said first portion is formed narrower than a width of said second portion and said first portion is arranged in a line.
Claim 2
Dependent Claim
183 words
A photoelectric converting device comprising a plurality of photoelectric converting cells which are arranged and each of which has: a semiconductor transistor consisting of two main electrode regions formed of a semiconductor of one conductivity type and a control electrode region formed of a semiconductor of the opposite conductivity type; and a capacitor for controlling a potential of said control electrode region in the floating state, wherein each of said photoelectric converting cells accumulates carriers generated due to an incident light into said control electrode region and controls an output by an accumulated voltage generated due to said accumulated carriers by controlling-the potential of said control electrode region in the floating state through the capacitor, and each of said photoelectric converting cells consists of a first portion having a high photoelectric converting efficiency and a second portion which is formed with at least an electrode of said capacitor and an electrode of the other main electrode region, and a width of said first portion is formed narrower than a width of said second portion and said first portion is arranged in a line.
Claim 3
Dependent Claim
32 words
A photoelectric converting device according to Claim 1, wherein light shielding means is provided on said second portion and only the first portion arranged in a line serves as the photosensing surface.
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