Abstract: A solid-state imaging device of an embodiment of the present disclosure includes a semiconductor substrate having one surface and another surface opposed to the one surface, a photoelectric conversion section formed to be embedded in the semiconductor substrate, a charge holding section provided in the one surface of the semiconductor substrate while being stacked on the photoelectric conversion section, an n-type semiconductor region provided in the one surface of the semiconductor substrate, and a charge-voltage conversion section provided in the one surface of the semiconductor substrate. A charge generated in the photoelectric conversion section is transferred via the n-type semiconductor region to the charge holding section.

Abstract: A wiring substrate includes first conductor pads formed on a surface of an insulating layer, second conductor pads formed on the surface of the insulating layer, a second insulating layer covering the surface of the insulating layer and first and second conductor pads, first via conductors formed in first via holes penetrating through the second insulating layer such that the first via conductors are formed on the first conductor pads, and second via conductors formed in second via holes penetrating through the second insulating layer such that the second via conductors are formed on the second conductor pads. The first and second conductor pads are formed such that an annular width amount of each second conductor pad is smaller than an annular width amount of each first conductor pad and that a haloing amount in each second conductor pad is smaller than a haloing amount in each first conductor pad.

Abstract: A method for manufacturing a wiring substrate includes forming conductor pads on a surface of an insulating layer, positioning, on or in the insulating layer, an electronic component having electrode pads, forming a second insulating layer covering the surface of the insulating layer, conductor pads and electronic component, forming first via holes exposing the conductor pads, applying a first desmear treatment to the second insulating layer such that residues are removed from the first via holes, forming second via holes in the second insulating layer after the first desmear treatment such that the second via holes expose the electrode pads of the electronic component positioned on or in the insulating layer, applying a second desmear treatment to the second insulating layer such that residues are removed from the second via holes, forming first via conductors in the first via holes, and forming second via conductors in the second via holes.

Abstract: Provided is an imaging device and an electronic device which enable image capturing based on the global shutter system, without reducing the amount of saturated signal charge. Pixels each including a photoelectric conversion unit that converts light received thereon into electric charge, and a holding unit that holds the electric charge transferred from the photoelectric conversion unit, a floating diffusion that is shared among a plurality of the pixels, and that holds the electric charge transferred from the holding unit, and a boost line through which the floating diffusion is boosted are included.

Abstract: Provided is an imaging device capable of suppressing deterioration in characteristics. The imaging device includes a first substrate portion and a second substrate portion on one surface side of the first substrate portion. The first substrate portion includes a sensor pixel, a first interlayer insulating film, and a first electrode portion. The second substrate portion includes a readout circuit, a second interlayer insulating film, and a second electrode portion. The first electrode portion and the second electrode portion are directly joined to each other. The second semiconductor substrate includes a first element region in which an amplification transistor is provided, a second element region in which another element is provided, and a through region through which the second semiconductor substrate passes in the thickness direction. The first element region and the second element region are isolated by the through region.

Abstract: Provided is an imaging device and an electronic device which enable image capturing based on the global shutter system, without reducing the amount of saturated signal charge. Pixels each including a photoelectric conversion unit that converts light received thereon into electric charge, and a holding unit that holds the electric charge transferred from the photoelectric conversion unit, a floating diffusion that is shared among a plurality of the pixels, and that holds the electric charge transferred from the holding unit, and a boost line through which the floating diffusion is boosted are included.

Abstract: A solid-state imaging device includes a light-receiving surface, a plurality of pixels each including a photoelectric conversion section that photoelectrically converts light incident through the light-receiving surface, and a separation section that electrically and optically separates each photoelectric conversion section. Each of the pixels includes a charge-holding section that holds charges transferred from the photoelectric conversion section, a transfer transistor that includes a vertical gate electrode reaching the photoelectric conversion section, and transfers charges from the photoelectric conversion section to the charge-holding section, and a light-blocking section disposed in a layer between the photoelectric conversion section and the charge-holding section. A plurality of the vertical gate electrodes are electrically coupled together in a plurality of first pixels adjacent to each other among the plurality of pixels.

Abstract: [Object] There are provided a solid-state imaging device that can minimize a decrease in layout efficiency due to trenches and a method of producing the same.

Abstract: Provided is an imaging device and an electronic device which enable image capturing based on the global shutter system, without reducing the amount of saturated signal charge. Pixels each including a photoelectric conversion unit that converts light received thereon into electric charge, and a holding unit that holds the electric charge transferred from the photoelectric conversion unit, a floating diffusion that is shared among a plurality of the pixels, and that holds the electric charge transferred from the holding unit, and a boost line through which the floating diffusion is boosted are included.

Abstract: The present technology relates to an imaging device and an electronic device which enable image capturing based on the global shutter system, without reducing the amount of saturated signal charge. Pixels each including a photoelectric conversion unit that converts light received thereon into electric charge, and a holding unit that holds the electric charge transferred from the photoelectric conversion unit, a floating diffusion that is shared among a plurality of the pixels, and that holds the electric charge transferred from the holding unit, and a boost line through which the floating diffusion is boosted are included. The present technology is applicable, for example, to an imaging device to capture images on the basis of a global shutter system.

Abstract: A solid-state imaging device of an embodiment of the present disclosure includes a semiconductor substrate having one surface and another surface opposed to the one surface, a photoelectric conversion section formed to be embedded in the semiconductor substrate, a charge holding section provided in the one surface of the semiconductor substrate while being stacked on the photoelectric conversion section, an n-type semiconductor region provided in the one surface of the semiconductor substrate, and a charge-voltage conversion section provided in the one surface of the semiconductor substrate. A charge generated in the photoelectric conversion section is transferred via the n-type semiconductor region to the charge holding section.

Abstract: The present technology relates to an imaging device and an electronic device which enable image capturing based on the global shutter system, without reducing the amount of saturated signal charge. Pixels each including a photoelectric conversion unit that converts light received thereon into electric charge, and a holding unit that holds the electric charge transferred from the photoelectric conversion unit, a floating diffusion that is shared among a plurality of the pixels, and that holds the electric charge transferred from the holding unit, and a boost line through which the floating diffusion is boosted are included. The present technology is applicable, for example, to an imaging device to capture images on the basis of a global shutter system.

Abstract: An apparatus for monitoring biological information is provided. The apparatus includes a detection part configured to detect a signal indicative of the biological information of a subject and a judging part configured to judge the biological information to identify an attribute of the biological information. The apparatus further includes a storage part configured to store the attribute of the biological information together with a time that the attribute is stored and a producing part configured to produce a signal to display the attribute in a chart defined by a first axis representing a cyclic time series and a second axis representing a time series within a cycle of the cyclic time series.

Abstract: A pressing cuff presses a pressure sensor above an artery. The level of the pressure applied to the pressure sensor is changed while the pulse wave is measured based on information about the pressure from the pressure sensor. In order to adjust the level of the applied pressure using the pressure of gas in the pressing cuff, a three-port valve and a two-port valve are controlled so that the connection is changed to establish a state of holding the amount of the gas in the pressing cuff. Then, the state is changed to a state of isolating and discharging gas in which a part of the held gas is isolated from the remaining amount of the gas to be discharged. Then, the state is changed to the state of holding the remaining amount of gas in the pressing cuff.

Abstract: A pulse wave measuring apparatus is disclosed which is capable of measuring the pulse wave accurately in stable fashion and which can be reduced in size and integrated for an improved convenience. The pulse wave measuring apparatus comprises a sensor unit having a plurality of semiconductor pressure sensors, a fixing stand for fixing a living organism in position, a pressure cuff for pressing the semiconductor pressure sensors against the living organism, and a press operation control unit for controlling the press operation of the pressure cuff. The press operation control unit is arranged in the fixing stand.

Abstract: A pulse wave measuring apparatus is disclosed, in which a sensor unit can be fixed easily under an appropriate pressure at an appropriate position on a living organism. With the living organism fixed by a living organism fixing device, a pressure sensitive portion arranged on the sensor unit is pressed against the living organism thereby to measure the pulse wave. The living organism fixing device includes a fixing stand for fixing the living organism in position, and fastening bands for connecting the fixing stand and the sensor unit and fastening the living organism fixedly to the fixing stand while at the same time activating by pressing the sensor unit against the living organism. The fastening bands include a first band portion with one end mounted on the sensor unit and the other end mounted on the fixing stand and a second band portion with one end mounted on the sensor unit and the other end removably mounted on the fixing stand.

Abstract: A sensor array having a plurality of pressure sensors arranged on a measurement surface, a pressurization portion for pressing the sensor array laid across an artery of a living body, a sensor signal selection portion for selecting a pressure signal among pressure signals from the plurality of pressure sensors, a filter portion having a cutoff frequency variable corresponding to an instruction, and a filter control portion for providing an instruction to vary a value of the cutoff frequency are included. The filter control portion switches the cutoff frequency in a situation wherein a plurality of pressure signals respectively obtained from the plurality of pressure sensors are successively switched and output by the sensor signal selection portion to specify the pressure sensor for pulse wave detection, and in a situation wherein the pulse wave is detected from the specified pressure sensor.

Abstract: A biosignal sensing device (2) includes an electrode section (12) including a pair of electrodes (12a,12b) mounted so that a living body can be in close proximity to or in contact with the electrodes. An oscillation section (11) supplies a high frequency signal to the electrodes. A reflected-wave level from the electrodes receiving the high frequency signal changes according to a change in impedance in the electrodes that are in close proximity to or in contact with the living body. This change in reflected-wave level reflects a change in impedance resulting from body movement of the living body such as respiration and pulsation. A sensing section (13) senses a signal indicating the change in reflected-wave level. Based on this signal, a signal amplifying section (14) calculates a desired biosignal such as pulse rate and respiration rate.

Abstract: A sensor array having a plurality of pressure sensors arranged on a measurement surface, a pressurization portion for pressing the sensor array laid across an artery of a living body, a sensor signal selection portion for selecting a pressure signal among pressure signals from the plurality of pressure sensors, a filter portion having a cutoff frequency variable corresponding to an instruction, and a filter control portion for providing an instruction to vary a value of the cutoff frequency are included. The filter control portion switches the cutoff frequency in a situation wherein a plurality of pressure signals respectively obtained from the plurality of pressure sensors are successively switched and output by the sensor signal selection portion to specify the pressure sensor for pulse wave detection, and in a situation wherein the pulse wave is detected from the specified pressure sensor.

Abstract: A pressing cuff presses a pressure sensor above an artery. The level of the pressure applied to the pressure sensor is changed while the pulse wave is measured based on information about the pressure from the pressure sensor. In order to adjust the level of the applied pressure using the pressure of gas in the pressing cuff, a three-port valve and a two-port valve are controlled so that the connection is changed to establish a state of holding the amount of the gas in the pressing cuff. Then, the state is changed to a state of isolating and discharging gas in which a part of the held gas is isolated from the remaining amount of the gas to be discharged. Then, the state is changed to the state of holding the remaining amount of gas in the pressing cuff.