Abstract: Provided is a solid-state image capturing element including a semiconductor substrate and first and second photoelectric conversion parts configured to convert light into electric charge. The first and the second photoelectric conversion parts each have a laminated structure including an upper electrode, a lower electrode, a photoelectric conversion film sandwiched between the upper electrode and the lower electrode, and an accumulation electrode facing the upper electrode through the photoelectric conversion film and an insulating film.

Abstract: A CO2 sensor includes: a sensing portion operable to change in color in accordance with a CO2 partial pressure in expiration from at least one of nares and a mouth of a living body; and a mounting member adapted to hold the sensing portion at a position where the expiration from the at least one of the nares and the mouth impinges on the sensing portion.

Abstract: A probe includes: light emitting and receiving sections; an attachment band including a first surface facing the living tissue and a second surface opposite to the first surface, a part of the first surface in which one of a hook portion and a loop portion is provided, a part of the second surface in which the other is provided, the attachment band to be wrapped around the living tissue to engage the hook and loop portions with each other; and a compressible member attached to the first surface, being in contact with the living tissue when the attachment band is attached to the living tissue, the compressible member which is larger in width than the attachment band and ends of which extend beyond ends of the attachment band.

Abstract: A CO2 sensor includes: a sensing portion operable to change in color in accordance with a CO2 partial pressure in expiration from at least one of nares and a mouth of a living body; and a mounting member adapted to hold the sensing portion at a position where the expiration from the at least one of the nares and the mouth impinges on the sensing portion.

Abstract: A probe includes: light emitting and receiving sections; an attachment band including a first surface facing the living tissue and a second surface opposite to the first surface, a part of the first surface in which one of a hook portion and a loop portion is provided, a part of the second surface in which the other is provided, the attachment band to be wrapped around the living tissue to engage the hook and loop portions with each other; and a compressible member attached to the first surface, being in contact with the living tissue when the attachment band is attached to the living tissue, the compressible member which is larger in width than the attachment band and ends of which extend beyond ends of the attachment band.

Abstract: The sensor mounting time period informing apparatus is provided with the detecting part, the timer part, the discriminating part, and the informing part. The detecting part detects whether or not the sensor is mounted on the living body for measuring biological information. The timer part counts the elapsed time period during which the sensor is continuously mounted on the living body based on the detection results of the detecting part. The discriminating part discriminates whether or not the elapsed time has reached the specified standard time. The informing part issues a notification when the elapsed time has reached the standard time based on the discrimination result of the discriminating part.

Abstract: A medical telemetry system includes a first detection section for detecting a first vital sign signal using a first sensor, a transmitter 10 which modulates a signal detected by the first detection section and transmits the modulated signal by radio wave transmission, a receiver 30 which receives the detection signal that has been transmitted by radio wave transmission and demodulates the received signal, having a connector 32 for transmitting the demodulated signal to a vital sign signal input section of the vital sign signal monitor 20, wherein the connector 32 of the receiver is connectable with a commonly used vital sign signal input section of each of various types of vital sign signal monitors 20.

Abstract: A conventional semiconductor device, for example, a MOS transistor including an offset gate structure has a problem that it is difficult to reduce the device size. In a semiconductor device according to the present invention, for example, in a P-channel MOS transistor including an offset gate structure, a LOCOS oxide film is formed between a source region and a drain region in an N type epitaxial layer. A gate electrode is formed to be positioned on the LOCOS oxide layer. In addition, a P type diffusion layer as the drain region and a P type diffusion layer as the source region are formed with a high positional accuracy with respect to the gate electrode. This structure makes it possible to reduce the device size of the MOS transistor.

Abstract: A flow measurement system includes: a respiration monitoring apparatus which measures a flow of a gas flowing through a flow path, to output a measurement value; and a gas monitoring apparatus which samples the gas to measure at least one of a concentration of a component of the gas and a component of the gas and to generate information on the flow of the sampled gas. The measurement value is corrected based on the information.

Abstract: A conventional semiconductor device has a problem that it is difficult to obtain a desired breakdown voltage characteristic due to a reduction in a punch-through breakdown voltage between drain and source regions. In a semiconductor device according to the present invention, a P type diffusion layer is formed in an N type epitaxial layer. An N type diffusion layer as a back gate region is formed in the P type diffusion layer. The N type diffusion layer is formed by self-alignment using a drain electrode. This structure makes it possible to increase an impurity concentration of the N type diffusion layer in a vicinity of a P type diffusion layer as a source region. As a result, it is possible to improve a punch-through breakdown voltage between the drain and the source regions, and to achieve a desired breakdown voltage characteristic of the MOS transistor.

Abstract: A conventional semiconductor device has a problem that it is difficult to obtain a desired breakdown voltage characteristic due to a reduction in a punch-through breakdown voltage between drain and source regions. In a semiconductor device according to the present invention, a P type diffusion layer is formed in an N type epitaxial layer. An N type diffusion layer as a back gate region is formed in the P type diffusion layer. The N type diffusion layer is formed by self-alignment using a drain electrode. This structure makes it possible to increase an impurity concentration of the N type diffusion layer in a vicinity of a P type diffusion layer as a source region. As a result, it is possible to improve a punch-through breakdown voltage between the drain and the source regions, and to achieve a desired breakdown voltage characteristic of the MOS transistor.

Abstract: A conventional semiconductor device, for example, a MOS transistor including an offset gate structure has a problem that it is difficult to reduce the device size. In a semiconductor device according to the present invention, for example, in a P-channel MOS transistor including an offset gate structure, a LOCOS oxide film is formed between a source region and a drain region in an N type epitaxial layer. A gate electrode is formed to be positioned on the LOCOS oxide layer. In addition, a P type diffusion layer as the drain region and a P type diffusion layer as the source region are formed with a high positional accuracy with respect to the gate electrode. This structure makes it possible to reduce the device size of the MOS transistor.

Abstract: In a semiconductor device, for example, a MOS transistor, of the present invention, a P type diffusion layer as a back gate region is formed in an N type epitaxial layer. An N type diffusion layer as a source region is formed in the P type diffusion layer. The P type diffusion layer is formed to have an impurity concentration peak deeper than the N type diffusion layers. This structure reduces a resistance value of a base region of a parasitic transistor, suppresses an increase in an electric potential of a base region in the MOS transistor, and thereby prevents the parasitic transistor from operating. Moreover, a breakdown voltage characteristic of the MOS transistor, which might be deteriorated by the operation of the parasitic transistor, is improved.

Abstract: A medical telemetry system includes a first detection section for detecting a first vital sign signal using a first sensor, a transmitter 10 which modulates a signal detected by the first detection section and transmits the modulated signal by radio wave transmission, a receiver 30 which receives the detection signal that has been transmitted by radio wave transmission and demodulates the received signal, having a connector 32 for transmitting the demodulated signal to a vital sign signal input section of the vital sign signal monitor 20, wherein the connector 32 of the receiver is connectable with a commonly used vital sign signal input section of each of various types of vital sign signal monitors 20.

Abstract: A medical telemetry system includes a first detection section for detecting a first vital sign signal using a first sensor, a transmitter 10 which modulates a signal detected by the first detection section and transmits the modulated signal by radio wave transmission, a receiver 30 which receives the detection signal that has been transmitted by radio wave transmission and demodulates the received signal, having a connector 32 for transmitting the demodulated signal to a vital sign signal input section of the vital sign signal monitor 20, wherein the connector 32 of the receiver is connectable with a commonly used vital sign signal input section of each of various types of vital sign signal monitors 20.

Abstract: A medical telemetry system includes a first detection section for detecting a first vital sign signal using a first sensor, a transmitter 10 which modulates a signal detected by the first detection section and transmits the modulated signal by radio wave transmission, a receiver 30 which receives the detection signal that has been transmitted by radio wave transmission and demodulates the received signal, having a connector 32 for transmitting the demodulated signal to a vital sign signal input section of the vital sign signal monitor 20, wherein the connector 32 of the receiver is connectable with a commonly used vital sign signal input section of each of various types of vital sign signal monitors 20.

Abstract: A pulse oximeter includes a light-emitting device for repeating red light emission, infrared light emission, and no light emission with respect to an object to be measured every data sampling cycle in a measurement of a saturated oxygen in arterial blood, a light-receiving device for outputting a light-receiving signal obtained by receiving transmitted light or reflected light from the object to be measured; a noise level detecting device for detecting from the light-receiving signal a noise signal level at the time of no light emission in the light-receiving device, and a light-receiving signal generating device for obtaining a light-receiving signal of a level corresponding only to the red light emission and the infrared light emission by subtracting the noise signal level from each of light-receiving signal levels of the red light emission and the infrared light emission.

Abstract: A device for measuring the bonding load of the bonding arm of a bonding machine including a frame body, a screw shaft rotatably installed in the frame body, a turning member for turning the screw shaft by hand, a screw assembly screw-engaged on the screw shaft so as to be movable on the screw shaft when the screw shaft is rotated, a slider connected to the screw assembly, a gauge holder provided on the slider for installing a tension gauge, a lifting member attached to the tension gauge so that the engagement part of the lifting member can engage with the bonding arm, and a mounting assembly for mounting the frame body to the wire bonding machine.

Abstract: An electrode used in a wire bonding method and apparatus for applying an electric discharge to an end of a bonding wire so as to form a ball at the end of the bonding wire. The electrode is provided with an obliquely cut surface at one end so that the end of the electrode is in a semicircular shape, and an edge area of the semicircular end surface is positioned to face upward and used as an electric discharge part. The electrode can be covered by a ceramic material except for the semicircular end surface.

Abstract: An apparatus capable of surely removing a toner or similar image forming substance stably cohered to a sheet, and an apparatus for processing a sheet are disclosed. A liquid supply unit uniformly supplies a liquid to a toner carried on the sheet. The sheet infiltrated with the liquid is heated by a toner removing unit to have to the toner thereof softened. As a result, the toner adheres to the surface of an offset member implemented as a belt or a drum. The sheet containing the liquid therein is conveyed to the toner removing unit without creasing, breaking or folding.