Abstract: The object of the present invention is to provide a method for producing the reproducible seafood imitating product which can reproduce the flesh of the seafood better than before. A method for producing the seafood imitating product of the present invention is provided.

Abstract: The object of the present invention is to provide a method for producing the reproducible seafood imitating product which can reproduce the flesh of the seafood better than before. A method for producing the seafood imitating product of the present invention is provided. The present invention is a method for producing the seafood imitating product including dietary fiber which comprises heat mixing dietary fiber, tapioca powder, thickener and water to obtain a flesh solution, solidifying the flesh solution to obtain a solidified body and freezing the solidified body.

Abstract: Provided is a semiconductor device including: a first wiring layer; a holding layer; a semiconductor element that is disposed between the first wiring layer and the holding layer and includes at least a semiconductor layer and a first electrode disposed on a first surface of the semiconductor layer; an insulator in which at least a part of the semiconductor element is embedded; and a first connecting portion that electrically connects the first wiring layer and the first electrode, wherein a connection area between the first connecting portion and the first electrode occupies 45% or more of an area of an exposed part of the first electrode.

Abstract: A workpiece support includes a rotating shaft, a second support, a first support, and an air supplier. The rotating shaft is configured to support a workpiece at the leading end portion. The second support supports the rotating shaft rotatably about a first axis of the rotating shaft. The first support is provided between a tool and the second support along the first axis and has a through hole into which a guide bushing unit is configured to be inserted and into which the leading end portion of the rotating shaft is configured to be inserted. The guide bushing unit is configured to support the workpiece when the guide bushing unit is in the through hole. An ejection opening is provided on an inner circumferential surface of the through hole. The air supplier is configured to supply air to the first support via the ejection opening.

Abstract: A workpiece support includes a rotating shaft configured to support a workpiece at a leading end portion, a second support supporting the rotating shaft rotatably about a first axis and configured to move the rotating shaft along the first axis, a first support provided between the tool and the second support along the first axis and including a through hole into which a guide bushing unit is configured to be inserted and into which the leading end portion of the rotating shaft is configured to be inserted, and an attachment provided in contact with an outer surface of the leading end portion of the rotating shaft. The guide bushing unit is configured to support the workpiece when the guide bushing unit is in the through hole. At least a part of the attachment is displaceable in a direction away from the first axis.

Abstract: There is a plasma processing apparatus comprising: a processing chamber configured to provide a processing space; an electromagnetic wave generator configured to generate electromagnetic waves for plasma excitation supplied to the processing space; a dielectric provided with a first surface facing the processing space; and an electromagnetic wave supply portion configured to supply the electromagnetic waves to the processing space through the dielectric, wherein the dielectric includes: a cell serving as a plasma generation space on the first surface side, a plurality of grooves formed on a second surface opposite to the first surface, the grooves surrounding the cell without communicating with the cell; and resonators including C-shaped ring members made of conductors inserted into the plurality of grooves, wherein the resonators are capable of resonating with magnetic field components of the electromagnetic waves and have a size smaller than a wavelength of the electromagnetic wave.

Abstract: Provided is a plasma processing apparatus comprising a processing container configured to provide a processing space; an electromagnetic wave generator configured to generate electromagnetic waves for plasma excitation supplied to the processing space; a dielectric provided with a first surface thereof facing the processing space; an electromagnetic wave supply portion configured to supply the electromagnetic waves to the processing space through the dielectric; and a resonator array structure located along the first surface of the dielectric within the processing container, wherein the resonator array structure includes a base plate having a groove on a surface on the processing space side; a plurality of resonators capable of resonating with a magnetic field component of the electromagnetic wave and having a size smaller than a wavelength of the electromagnetic wave; and a pressing member configured to press the plurality of resonators.

Abstract: A plasma processing apparatus includes a chamber, a microwave source, and a distributor. The chamber is configured to place a substrate therein and includes a plurality of radiation units that radiate microwaves, which are arranged while facing the substrate. The microwave source outputs microwaves. The distributor has one end connected to the microwave source, and the other end branched and connected to the plurality of radiation units, and distributes and transmits the microwaves output from the microwave source to the plurality of radiation units, in which when a wavelength of the microwaves is ?, a line length from the one end to the other end falls within a predetermined range beginning from n×?/2 (n is a natural number).

Abstract: A power supply device with enhanced safety is provided. A power supply device (100) includes secondary battery cells (1) each including a positive electrode (2) including a safety valve on one end surface of each cell, a battery holder holding the secondary battery cells (1) each including the positive electrode (2) on the one end surface thereof, and a housing (20) having a bottom surface (22), a top surface (23), and an inner space which accommodates the battery holder therein. The battery holder holds the secondary battery cells (1) upright in parallel to one another such that the positive electrode (2) on the one end surface of each cell (1) is directed vertically downward. In the housing (20), the battery holder retains the positive electrode (2) of each cell (1) spaced apart from the bottom surface (22) across a first space (SP1).

Abstract: A member includes a base material and a conductive layer. The conductive layer conducts heat or electricity. The conductive layer includes a conductive portion and a non-conductive portion. The conductive portion conducts heat or electricity. The conductive portion is disposed on at least one of an upper surface or a lower surface of the non-conductive portion and on a side surface of the non-conductive portion.

Abstract: A plasma processing apparatus includes: a processing container in which a stage is accommodated and including an opening formed above the stage; a lid member for sealing the opening and including: at least one through-hole formed in a region facing the stage and in which a radiation part for radiating microwaves is arranged; a protruded portion formed on a first surface facing an interior of the processing container to protrude toward the interior of the processing container along an edge of the opening; a flow path formed inside the protruded portion; gas holes formed on the first surface to communicate with the flow path; and a supply port formed on a second surface facing an exterior of the processing container to communicate with the flow path; and a remote plasma unit connected to the supply port and for plasmarizing a cleaning gas and supply the same to the supply port.

Abstract: A semiconductor module bonding structure includes: a semiconductor module including a semiconductor element and a positive terminal which is a plate-shaped power terminal electrically connected to the semiconductor element; and a main P bus bar which is a bus bar including a plate-shaped bonding part bonded to the positive terminal of the semiconductor module. The positive terminal of the semiconductor module which is one of the positive terminal and the bonding part of the main P bus bar that has a relatively small thickness is configures to be wider than the bonding part which is the other having a relatively large thickness, and the positive terminal and the bonding part are bonded together by fusion welding in the state of being arranged so that the respective thickness directions of the positive terminal and the bonding part are orthogonal to each other.

Abstract: An imaging element which outputs an image signal acquired by an imaging unit having a plurality of pixel portions is provided. The imaging element receives a target luminance value from an imaging device and executes exposure control in the imaging element on the basis of an accumulation time of the pixel portion and a gain for an output signal of the imaging unit, which correspond to the target luminance value. The imaging element instructs the imaging device to perform exposure control if a luminance value of a subject exceeds an exposure control range in the imaging element.

Abstract: An apparatus includes a capturing unit configured to perform image capturing while changing a focus position to obtain an image, an acquisition unit configured to acquire a focus position for the image capturing, a display unit configured to perform display about a pre-image-captured image acquired by the capturing unit performing pre-image capturing and a focus position of the pre-image-captured image acquired by the acquisition unit, a designation unit configured to designate the focus position to be used for actual image capturing, based on the display, and a combining unit configured to combine a plurality of actual-image-captured images acquired by the capturing unit performing the image capturing with the focus position to be used for the actual image capturing.

Abstract: An eye-gaze tracker wearable by a user, includes: an infrared irradiation unit to irradiate an eyeball of the user with infrared light; an infrared sensor provided on a lens, the infrared sensor being translucent at least to visible light and to output a signal when the infrared light reflected from the eyeball is incident on the infrared sensor; and processing circuitry to determine a gaze direction of the user based on the signal output from the infrared sensor.

Abstract: A semiconductor module bonding structure includes: a semiconductor module including a semiconductor element and a positive terminal which is a plate-shaped power terminal electrically connected to the semiconductor element; and a main P bus bar which is a bus bar including a plate-shaped bonding part bonded to the positive terminal of the semiconductor module. The positive terminal of the semiconductor module which is one of the positive terminal and the bonding part of the main P bus bar that has a relatively small thickness is configures to be wider than the bonding part which is the other having a relatively large thickness, and the positive terminal and the bonding part are bonded together by fusion welding in the state of being arranged so that the respective thickness directions of the positive terminal and the bonding part are orthogonal to each other.

Abstract: An imaging element which outputs an image signal acquired by an imaging unit having a plurality of pixel portions is provided. The imaging element receives a target luminance value from an imaging device and executes exposure control in the imaging element on the basis of an accumulation time of the pixel portion and a gain for an output signal of the imaging unit, which correspond to the target luminance value. The imaging element instructs the imaging device to perform exposure control if a luminance value of a subject exceeds an exposure control range in the imaging element.

Abstract: In a wireless power supply apparatus, a first unit electrically connected to a power supply and a second unit electrically connected to an electric load. Power transmission is performed wirelessly between the first and second units using a magnetic resonance phenomenon. Each of the units has a resonant amplifier circuit provided with switching means driven by a drive signal, a resonant coil to which a high-frequency signal generated by the resonant amplifier circuit is supplied such that the resonant coil functions as a resonant inductor on the resonant amplifier circuit, and electric storage means electrically connected to the resonant amplifier circuit so as to be capable of charging and discharging power. The second unit includes current detecting means for detecting a current flowing through the storage means, and phase control means for controlling a phase of the drive signal for the switching means based on the detected current.

Abstract: An eye-gaze tracker wearable by a user, includes: an infrared irradiation unit to irradiate an eyeball of the user with infrared light; an infrared sensor provided on a lens, the infrared sensor being translucent at least to visible light and to output a signal when the infrared light reflected from the eyeball is incident on the infrared sensor; and processing circuitry to determine a gaze direction of the user based on the signal output from the infrared sensor.