Abstract:
Provided is a photoelectric conversion apparatus, including: a sensor cell unit including a photoelectric conversion unit, an amplification unit, a select switch, and a reset switch, the amplification unit including an input node and an output node; an output line; a signal processing unit; and a control unit. The output node is electrically connected to the signal processing unit via the select switch and via the output line in this order. The input node is electrically connected to the photoelectric conversion unit, and is electrically connected to the signal processing unit via the reset switch and via the output line in this order. The control unit controls the reset switch and the select switch to be both in a conductive state in a predetermined period.
Abstract:
A photoelectric conversion apparatus has: a plurality of pixels having mutually different color filters, and generating pixel signals by a photoelectric conversion; a color selecting switch for selecting the pixel signals generated by the plurality of pixels having mutually different color filters; a first amplifier circuit for amplifying at mutually different gains the pixel signals generated by the pixels having mutually different color filters and selected by the color selecting switch; a reference voltage connecting switch for selecting a reference voltage; and a second amplifier circuit for amplifying at mutually different gains the reference voltages correspondingly to the pixel signals of mutually different colors.
Abstract:
A photoelectric conversion device comprising: a first signal transfer unit group having a plurality of signal transfer units which transfer digital signals to a first common output line from a first holding circuit group; and a second signal transfer unit group having a plurality of signal transfer units which transfer digital signals to a second common output line from a second holding circuit group, wherein each of the plurality of signal transfer units is capable of transiting to a second state in which current consumption is less than current consumption in a first state, and, in a predetermined period, a number of the signal transfer units in the second state increases in the first signal transfer unit group and a number of the signal transfer units in the second state decreases in the second signal transfer unit group.
Abstract:
A solid-state image sensor is provided. The sensor includes a first transistor including a first diffusion region, a second transistor including a second diffusion region and an insulation film arranged over these transistors. The insulation film includes a first and a second film. A first portion of the first diffusion region covered with the insulation film includes a second portion covered with only the second film. A third portion of the second diffusion region covered with the insulation film includes a fourth portion covered with the first and second film. A stress in the fourth portion is larger than the second portion. A proportion of an area of the first portion except the second portion to an area of the first portion is lower than a proportion of an area of the fourth portion to an area of the third portion.
Abstract:
Provided is a photoelectric conversion apparatus, including: a sensor cell unit including a photoelectric conversion unit, an amplification unit, a select switch, and a reset switch, the amplification unit including an input node and an output node; an output line; a signal processing unit; and a control unit. The output node is electrically connected to the signal processing unit via the select switch and via the output line in this order. The input node is electrically connected to the photoelectric conversion unit, and is electrically connected to the signal processing unit via the reset switch and via the output line in this order. The control unit controls the reset switch and the select switch to be both in a conductive state in a predetermined period.
Abstract:
A photoelectric conversion apparatus includes a photoelectric conversion unit, a signal line, a circuit block, and a control circuit. The circuit block includes a differential amplifier circuit including a feedback path, a first switch that controls conduction between an output terminal and the signal line, a second switch that controls conduction between an inverting input terminal and the signal line, and a third switch that controls conduction between the inverting input terminal and the output terminal. The control circuit controls a signal for controlling the first switch and a signal for controlling the third switch to have the relation of logical NOT.
Abstract:
A photoelectric conversion apparatus has: a plurality of pixels having mutually different color filters, and generating pixel signals by a photoelectric conversion; a color selecting switch for selecting the pixel signals generated by the plurality of pixels having mutually different color filters; a first amplifier circuit for amplifying at mutually different gains the pixel signals generated by the pixels having mutually different color filters and selected by the color selecting switch; a reference voltage connecting switch for selecting a reference voltage; and a second amplifier circuit for amplifying at mutually different gains the reference voltages correspondingly to the pixel signals of mutually different colors.
Abstract:
A photoelectric conversion apparatus of the present invention includes: a plurality of pixel arrays having different colors and arrayed in the subsidiary scanning direction when the photoelectric conversion apparatus scans a document relatively in the subsidiary scanning direction, each of the plurality of pixel arrays including a plurality of pixels that perform photoelectric conversion; and a pulse controlling unit which controls pulse positions of control pulses that control operations of the pixels, wherein the pulse controlling unit controls the pulse positions of the control pulses for the pixel arrays of each color, according to color offset quantities in the subsidiary scanning direction of the pixel arrays of each color.
Abstract:
A photoelectric conversion apparatus includes plural pixel arrays arranged side-by-side in a first direction, each of the plurality of pixel arrays including a plurality of pixels that perform photoelectric conversion. A pulse controlling unit supplies control pulses to the pixel arrays of each color, according to color offset quantities formed in the first direction.
Abstract:
A signal processing circuit includes a reference signal line, a processing circuit that processes a potential of the reference signal line and a potential of an input signal, a first reference voltage supplying circuit that outputs a predetermined potential to one end of the reference signal line, and a second reference voltage supplying circuit that outputs a predetermined potential to the other end of the reference signal line.