Abstract: A film contains a ?-1,3-glucan derivative obtained by introducing an acyl group into a ?-1,3-glucan and at least one resin selected from the group consisting of a rosin-based resin, a terpene-based resin, and a petroleum-based resin. The acyl group is represented by RCO—, and the R is a hydrocarbon group having 1 or more and 5 or less carbon atoms. Parts by weight of the resin with respect to 100 parts by weight of the ?-1,3-glucan derivative are 90 parts by weight or less. A pressure-sensitive adhesive tape includes the film and a pressure-sensitive adhesive layer.

Abstract: A spectroscopic module includes M beam splitters that are arranged along an X direction, where M is a natural number of 2 or more; M bandpass filters disposed on one side in a Z direction with respect to the M beam splitters, each of the M bandpass filters facing each of the M beam splitters; a light detector disposed on the one side in the Z direction with respect to the M bandpass filters and includes M light receiving regions, each of the M light receiving regions facing each of the M bandpass filters; a first support body supporting the M beam splitters; and a second support body supporting the M bandpass filters. Each of N beam splitters among the M beam splitters has a plate shape and has a thickness of 1 mm or less, where N is a natural number of 2 to M.

Abstract: A spectroscopic module includes M beam splitters that are arranged along an X direction, where M is a natural number of 2 or more; M bandpass filters disposed on one side in a Z direction with respect to the M beam splitters, each of the M bandpass filters facing each of the M beam splitters; a light detector disposed on the one side in the Z direction with respect to the M bandpass filters and includes M light receiving regions, each of the M light receiving regions facing each of the M bandpass filters; a first support body supporting the M beam splitters; and a second support body supporting the M bandpass filters. Each of N beam splitters among the M beam splitters has a plate shape and has a thickness of 1 mm or less, where N is a natural number of 2 to M.

Abstract: A power supply includes a first control circuit configured to control an output voltage of the power supply, a second control circuit configured to control an output current of the power supply, a switching circuit configured to switch control of the power supply from the first control circuit to the second control circuit based on the output current of the power supply while the first control circuit controls the output voltage of the power supply, and a power supply control circuit configured to output status information indicating a failure of the power supply acquired based on the output voltage of the power supply while the second control circuit controls the output current of the power supply.

Abstract: A spectroscopic module includes M beam splitters that are arranged along an X direction, where M is a natural number of 2 or more; M bandpass filters disposed on one side in a Z direction with respect to the M beam splitters, each of the M bandpass filters facing each of the M beam splitters; a light detector disposed on the one side in the Z direction with respect to the M bandpass filters and includes M light receiving regions, each of the M light receiving regions facing each of the M bandpass filters; a first support body supporting the M beam splitters; and a second support body supporting the M bandpass filters. Each of N beam splitters among the M beam splitters has a plate shape and has a thickness of 1 mm or less, where N is a natural number of 2 to M.

Abstract: A power supply includes a first control circuit configured to control an output voltage of the power supply, a second control circuit configured to control an output current of the power supply, a switching circuit configured to switch control of the power supply from the first control circuit to the second control circuit based on the output current of the power supply while the first control circuit controls the output voltage of the power supply, and a power supply control circuit configured to output status information indicating a failure of the power supply acquired based on the output voltage of the power supply while the second control circuit controls the output current of the power supply.

Abstract: An electronic apparatus includes a convertor, and a discharge circuit, and a controller. The convertor controls supply of power to a load according to one of a state of a switch and an operational mode of the electronic apparatus. The discharge circuit discharges a capacitor of a power supply when the convertor stops operating. The controller detects completion of discharge performed with the discharge circuit according to a voltage in the discharge circuit, and restores operation of the convertor in response to a detection of the discharge completion detector indicating the completion of the discharge of the capacitor, when the switch is in the closed state or when the operational mode is switched from the sleep mode to the operating mode.

Abstract: An image data processing device including: a storage means configured to store a three-dimensional MRI image of a subject's head; a three-dimensional appearance image generation means configured to generate a three-dimensional appearance image of the head; an image generation means configured to perform positional alignment between the three-dimensional MRI image and the three-dimensional appearance image, and to generate a three-dimensional image of the head after the positional alignment; an after-movement image generation means configured to generate, when the subject's head has been moved, a three-dimensional subject's head image after the movement and the positional alignment; an operational object image generation means configured to generate an operational object image indicating a position of an operational object; and a display means configured to display the three-dimensional image of the subject's head after the movement and the operational object image in one image.

Abstract: An electronic apparatus includes a convertor, and a discharge circuit, and a controller. The convertor controls supply of power to a load according to one of a state of a switch and an operational mode of the electronic apparatus. The discharge circuit discharges a capacitor of a power supply when the convertor stops operating. The controller detects completion of discharge performed with the discharge circuit according to a voltage in the discharge circuit, and restores operation of the convertor in response to a detection of the discharge completion detector indicating the completion of the discharge of the capacitor, when the switch is in the closed state or when the operational mode is switched from the sleep mode to the operating mode.

Abstract: The present invention provides an image data processing device that is beneficial in order to reduce the patient's strain and botheration for the practitioner when performing the transcranial magnetic stimulation treatment, and a transcranial magnetic stimulation apparatus utilizing the image data processing device.

Abstract: A surface light source device has a light-conductor plate operable to conduct light inside and allows the light to exit at a light-exit surface to outside, a light source that is small compared to a width of the light-conductor plate, having a first surface arranged opposite to a light incident surface of the light-conductor plate, and a second surface opposite the first surface, and a fixture having fit pieces engaged on fit areas formed on the light conductor plate, an abutment piece urged to a push area formed on the second surface of the light source, and clamp pieces urged to clamp steps formed on the light source. The abutment piece urges the push area to the light incident surface by an elastic reactive force generated by elastic deformation of the fixture between the fixture and the abutment piece.

Abstract: The present invention relates to a high frequency module board device having a high frequency transmitting and receiving circuit for modulating and demodulating a high frequency signal. The high frequency module board device comprises a base board (2) whose main surface is formed as a build-up surface (2a) and a high frequency circuit part (3) formed on the build-up surface of the base board (2) and having passive elements formed. The base board (2) has an area (29) in which wiring is not formed in a lower layer from a fourth wiring layer (8b). The high frequency circuit part (3) has an upper electrode part (36) and a lower electrode part (35) in positions corresponding to the area (29) in which the wiring is not formed. Thus, since a capacitance (18) is provided just above the area (29) in which the wiring is not formed, a parasitic capacity that the capacitance (18) receives from ground patterns (14) is reduced. Accordingly, the characteristics of the capacitance (18) can be improved.

Abstract: A surface light source device has a light-conductor plate that conducts light at an interior and allows same to exit at a light-exit surface to an outside, and a light source arranged oppositely to a light incident surface of the light-conductor plate and small in size as compared to a width of the light-conductor plate. The light source is held by a fixture engaged on the light-conductor plate. The fixture in part is elastically abutted against an opposite surface of the light source to a surface thereof facing to the light incident surface thereby urging the light source on the light incident surface. The fixture and the light-conductor plate are aligned to each other thicknesswise of the light-conductor plate, and the fixture and the light source are aligned to each other thicknesswise of the light-conductor plate.

Abstract: A surface light source device has a light-conductor plate operable to conduct light inside and allows the light to exit at a light-exit surface to outside, a light source that is small compared to a width of the light-conductor plate, having a first surface arranged opposite to a light fixture having fit pieces engaged on fit areas formed on the light conductor plate, an abutment piece urged to a push area formed on the second surface of the light source, and clamp pieces urged to clamp steps formed on the light source. The abutment piece urges the push area to the light incident surface by an elastic reactive force generated by elastic deformation of the fixture between the fixture and the abutment piece.

Abstract: A surface light source is provided which can press and attach a light source on a light-conductor plate in a manner not to cause a predetermined gap or more at between the light source and the light-conductor plate. Fixture-fit areas 49 are recessed on the both sides in the upper and lower surfaces of a light-source receiver 47 provided in a light-conductor plate 33, to provide snaps 50 projecting in the fixture-fit areas 49. Between the fixture-fit area 49 and the light-source receiver 47, formed are clamp steps 51 equal in depth to the fixture-fit area 49. Clamp steps 42 are recessed on the both sides in the upper and lower surfaces of the point light source 32 put in the light-source receiver 47. The metal fixture 52 is attached to the light-conductor plate 33 by engaging, on the snaps 50, the engaging holes 54 of the fit pieces 53 provided in the metal fixture 52.

Abstract: The present invention provides a high-frequency module device having a distributed constant circuit formed therein, the device comprising: a base board (2) having a high-frequency element layer forming surface (3) formed by performing flattening processing on an uppermost layer of a multilayer printed wiring part in which a printed wiring layer having a ground part and a dielectric insulating layer made of a dielectric insulating material are formed in a multilayer form on one major surface of a core board (6); and a high-frequency element layer part (5) having a passive element and a circuit element for receiving power or a signal supplied from the base board (2) via a dielectric insulating part made of a dielectric insulating material, on the high-frequency element layer forming surface (3) of the base board (2). The base board (2) has a distributed constant circuit (4) formed by pattern wiring.

Abstract: The present invention relates to a high frequency module board device having a high frequency transmitting and receiving circuit for modulating and demodulating a high frequency signal. The high frequency module board device comprises a base board (2) whose main surface is formed as a build-up surface (2a) and a high frequency circuit part (3) formed on the build-up surface of the base board (2) and having passive elements formed. The base board (2) has an area (29) in which wiring is not formed in a lower layer from a fourth wiring layer (8b). The high frequency circuit part (3) has an upper electrode part (36) and a lower electrode part (35) in positions corresponding to the area (29) in which the wiring is not formed. Thus, since a capacitance (18) is provided just above the area (29) in which the wiring is not formed, a parasitic capacity that the capacitance (18) receives from ground patterns (14) is reduced. Accordingly, the characteristics of the capacitance (18) can be improved.

Abstract: The present invention relates to a high frequency module board device having a high frequency transmitting and receiving circuit for modulating and demodulating a high frequency signal. The high frequency module board device comprises a base board (2) whose main surface is formed as a build-up surface (2a) and a high frequency circuit part (3) formed on the build-up surface of the base board (2) and having passive elements formed. The base board (2) has an area (29) in which wiring is not formed in a lower layer from a fourth wiring layer (8b). The high frequency circuit part (3) has an upper electrode part (36) and a lower electrode part (35) in positions corresponding to the area (29) in which the wiring is not formed. Thus, since a capacitance (18) is provided just above the area (29) in which the wiring is not formed, a parasitic capacity that the capacitance (18) receives from ground patterns (14) is reduced. Accordingly, the characteristics of the capacitance (18) can be improved.

Abstract: The present invention provides a high-frequency module configuring a micro communication functional module, which includes a base substrate (2) which has multiple pattern wiring layers (6a) (6b) (9a) (9b) and dielectric insulating layers (5) (8) (11) formed therein, and has a buildup surface for smoothing the upper layer thereof, and a high-frequency element layer (4) formed on the buildup surface, which has an inductor (20) formed therein via an insulating layer (19) formed on the buildup surface. The base substrate (2) is provided with a region (30) where the pattern wiring layers (6a) (6b) (9a) (9b) are not formed from the upper layer to at least the mid portion thereof along the thickness direction, and the inductor (20) of the high-frequency element layer (4) is formed directly above the region (30).

Abstract: The present invention relates to a high frequency module board device having a high frequency transmitting and receiving circuit for modulating and demodulating a high frequency signal. The high frequency module board device comprises a base board (2) whose main surface is formed as a build-up surface (2a) and a high frequency circuit part (3) formed on the build-up surface of the base board (2) and having passive elements formed. The base board (2) has an area (29) in which wiring is not formed in a lower layer from a fourth wiring layer (8b). The high frequency circuit part (3) has an upper electrode part (36) and a lower electrode part (35) in positions corresponding to the area (29) in which the wiring is not formed. Thus, since a capacitance (18) is provided just above the area (29) in which the wiring is not formed, a parasitic capacity that the capacitance (18) receives from ground patterns (14) is reduced. Accordingly, the characteristics of the capacitance (18) can be improved.