Abstract: Provided is an ink-jet adhesive that can suppress adhesion of an adhesive component to an unintended region of a transparent member when the transparent member is used as a member to be bonded. The ink-jet adhesive according to the present invention contains a photocurable compound having a (meth) acryloyl group or a vinyl group and having no cyclic ether group, and a photopolymerization initiator, contains or does not contain a thermosetting compound having no (meth) acryloyl group and having a cyclic ether group, and a content of the thermosetting compound is 5 wt % or less when the ink-jet adhesive contains the thermosetting compound.

Abstract: An image forming apparatus includes a plural image forming units each having a plural image forming sections, and an intermediate transfer body on which toner images formed by the plural image forming sections are primarily transferred; a plural secondary transfer units that are provided corresponding to the plural the image forming units, and secondarily transfer the toner images of the intermediate transfer body to a recording medium; and a processor configured to: in response to an instruction for adjusting misalignment of the toner images, execute a mode in which a first chart for checking amounts of misalignment between a toner image formed by a reference image forming section and the toner images formed by another image forming section, for each image forming unit, and a second chart for checking amounts of misalignment between toner images formed by the reference image forming sections of the plural image forming units are secondarily transferred to the recording medium and output, and an input of a fi

Abstract: An image forming apparatus includes plural image forming units including plural image forming sections and an intermediate transfer body to which a toner image formed on the plural image forming sections is primarily transferred, and a processor, in which wherein the processor is configured to, in a case where, during image formation using any of the image forming units among the image forming units, in a case where a consumable of any of the image forming sections of the image forming unit is insufficient, an image forming section of an identical color to the image forming section of which the consumable is insufficient is present in another image forming unit, and a storage medium for storing management information for managing a consumable unit is not provided in the consumable unit attached to the image forming section of which the consumable is insufficient, ask a user whether or not to exchange the consumable unit attached to the image forming section of which the consumable is insufficient and a consum

Abstract: An image forming apparatus includes plural image forming units including plural image forming sections and an intermediate transfer body to which a toner image formed on the plural image forming sections is primarily transferred, and a processor, in which the processor is configured to, in a case where a printing instruction is received in a state in which an image forming section having a combination of identical colors is set for each of the plural image forming units, execute the printing instruction by using an image forming unit that is in a state in which image formation is able to be executed among the plural image forming units.

Abstract: A rear sprocket comprises a sprocket body, a plurality of sprocket teeth, a plurality of spline teeth, a maximum spline distance, and a radial tooth-bottom distance. Each of the plurality of spline teeth has a spline crest. The maximum spline distance is defined from the rotational center axis to the spline crest. The radial tooth-bottom distance is defined from a rotational center axis to one of plurality of tooth bottom center points. The maximum spline distance is larger than the radial tooth-bottom distance. The spline crest of each of the plurality of spline teeth is positioned radially inwardly from the tooth outline of each of the plurality of sprocket teeth in the radial direction.

Abstract: An image forming apparatus includes a plural image forming units each having a plural image forming sections, and an intermediate transfer body on which toner images formed by the plural image forming sections are primarily transferred, a plural secondary transfer units that are provided corresponding to the plural image forming units, and secondarily transfer the toner images of the intermediate transfer body to a recording medium, and a processor, in which each image forming unit has the image forming section of the same color, and the processor is configured to: in response to an instruction to output a color chart of the same color, execute a mode in which the color chart of the toner image having a density of intermediate gradation, formed by the image forming section of the same color for each image forming unit, is secondarily transferred to the recording medium and output.

Abstract: A wiring substrate includes a first insulating layer, a first conductor layer, and a plurality of filled vias. The first insulating layer has a first surface and a second surface positioned on a side opposite to the first surface. The first conductor layer is formed on the first surface of the first insulating layer. The plurality of filled vias are formed inside the first insulating layer. The plurality of filled vias each have a structure in which a via hole penetrating the first insulating layer is filled with a metal. The first conductor layer includes a pad. The pad overlaps the plurality of filled vias in a plan view from a thickness direction of the first insulating layer and is connected to the plurality of filled vias.

Abstract: The invention suppresses hysteresis. A relief valve switching between whether to discharge oil through movement of a valve body includes: a first spacing part, in which the valve body moves; a second space part, connected with the first space part and having a diameter smaller than a diameter of the first space part; an elastic body, connected with the valve body; a seal part, disposed in a circumferential direction of the valve body; and a third space part, formed in the first space part.

Abstract: The communication device 111 included in the active cable comprises a controller 11, a comparator 12, a resistor 13, a voltage source 14, and a redriver 16. The comparator 12 receives the voltage value of the SBU signal line and the reference voltage value output from the voltage source 14, and compares the voltage value of the SBU signal line with the reference voltage value to detect the level of the sideband signal. The controller 11 receives the detection result of the sideband signal level from the comparator 12, and sets the redriver 16, which is an active device, to the low-power-consumption state when the sideband signal level stays at L level for a predetermined period of time or longer.

Abstract: It is intended to conveniently determine the pharmacokinetics of axitinib and to predict the therapeutic effect of axitinib. The present invention provides a method for determining the pharmacokinetics of axitinib, comprising the step of calculating a predicted pharmacokinetic parameter of axitinib using specific gene polymorphisms and background factors regarding a test subject.

Abstract: A method for simulating a phenomenon involving phase change includes: calculating, by a processor, a degree of phase change in a porous medium per unit volume and unit time based on an area of a gas-liquid interface in the porous medium per unit volume and a phase change rate at the gas-liquid interface.

Abstract: In a case where an imaging apparatus is standing by for a series of image-capturing processes, when a predetermined period of time elapses while the imaging apparatus operates in a fast-return enabled state where image-capturing can be performed immediately, the imaging apparatus shifts from the fast-return enabled state to a power saving state where power consumption is reduced as compared with the fast-return enabled state. An adjustment item is set to auto in the fast-return enabled state, and operation for adjusting the adjustment item is stopped in the power saving state. When returning to a state where the series of image-capturing processes is enabled, the adjustment item is maintained as auto if the imaging apparatus is in the fast-return enabled state, and the adjustment item is returned to a setting value before shifting to the standby state if the imaging apparatus is in the power saving state.

Abstract: A wiring substrate includes a first insulating layer, a first conductor layer, and a plurality of filled vias. The first insulating layer has a first surface and a second surface positioned on a side opposite to the first surface. The first conductor layer is formed on the first surface of the first insulating layer. The plurality of filled vias are formed inside the first insulating layer. The plurality of filled vias each have a structure in which a via hole penetrating the first insulating layer is filled with a metal. The first conductor layer includes a pad. The pad overlaps the plurality of filled vias in a plan view from a thickness direction of the first insulating layer and is connected to the plurality of filled vias.

Abstract: A communication device includes a controller, a differential input termination resistor, a linear laser driver, transmitted signal detector, a linear transimpedance amplifier, a linear variable gain amplifier, a linear output driver, a pulse counter, a received signal detector, and an amplitude detector. The controller outputs a Term signal for setting a resistance value of the differential input termination resistor, a TxEN signal and an LS signal for controlling an operation of the linear laser driver, an RxEN signal for controlling operations of the linear TIA, the linear VGA, and the linear output driver, and a GCTL signal for controlling a gain of the linear VGA.

Abstract: An audio analysis platform may receive a portion of an audio input, wherein the audio input corresponds to audio associated with a plurality of speakers. The audio analysis platform may process, using a neural network, the portion of the audio input to determine voice activity of the plurality of speakers during the portion of the audio input, wherein the neural network is trained using reference audio data and reference diarization data corresponding to the reference audio data. The audio analysis platform may determine, based on the neural network being used to process the portion of the audio input, a diarization output associated with the portion of the audio input, wherein the diarization output indicates individual voice activity of the plurality of speakers. The audio analysis platform may provide the diarization output to indicate the individual voice activity of the plurality of speakers during the portion of the audio input.

Abstract: In a case where an imaging apparatus is standing by for a series of image-capturing processes, when a predetermined period of time elapses while the imaging apparatus operates in a fast-return enabled state where image-capturing can be performed immediately, the imaging apparatus shifts from the fast-return enabled state to a power saving state where power consumption is reduced as compared with the fast-return enabled state. An adjustment item is set to auto in the fast-return enabled state, and operation for adjusting the adjustment item is stopped in the power saving state. When returning to a state where the series of image-capturing processes is enabled, the adjustment item is maintained as auto if the imaging apparatus is in the fast-return enabled state, and the adjustment item is returned to a setting value before shifting to the standby state if the imaging apparatus is in the power saving state.

Abstract: An XTC circuit includes delay circuits, differentiated signal generating circuits, and an amplitude adjusting and adding circuit. A signal Da, which is one aggressor signal, is input to the differentiated signal generating circuit after being delayed by the delay circuit, and the differentiated signal generating circuit generates a differentiated signal having a differentiated waveform of the signal Da. In the amplitude adjusting and adding circuit, the differentiated signal generated by the differentiated signal generating circuit is amplitude-adjusted to become a current signal, and the differentiated signal after the amplitude adjustment is current-added to the signal Db.

Abstract: A multi-lane serializer device 1 includes serializer circuits 101 to 10N and a controller 20. A phase difference detector of each serializer circuit detects a phase difference between a load signal and a first clock, and outputs an abnormal detection signal to the controller 20 when the detected phase difference is abnormal. When the controller 20 receives the abnormal detection signal from any of the serializer circuits, the controller 20 transmits a batch reset instruction signal to all the serializer circuits. Then, in all the serializer circuits, when a reset signal generator receives the batch reset instruction signal output from the controller 20, the reset signal generator transmits a reset instruction signal to a load signal generator to reset the operation of a load signal generation in the load signal generator.

Abstract: A transmitting and receiving device includes a controller, a driver, a specific pattern generator, a transmitting signal detector, an amplifier, a differential amplifier, an average current detector, and a received signal detector. In a non-signal period, the controller causes a current signal to be input from the driver to a laser diode and causes an optical signal to be output from the laser diode. When an optical signal of a specific pattern output from the other-side laser diode reaches a photodiode over a period of length that depends on an average value of a current signal output from the other-side photodiode that receives the optical signal, the controller adjusts a magnitude of the current signal input from the driver to the laser diode based on the length of the period of the optical signal of the specific pattern.

Abstract: A transmitting and receiving device includes a controller, a driver, a specific pattern generator, a transmitting signal detector, an amplifier, a differential amplifier, an average current detector, and a received signal detector. In a non-signal period, the controller causes a current signal to be input from the driver to a laser diode and causes an optical signal to be output from the laser diode. When an optical signal of a specific pattern output from the other-side laser diode reaches a photodiode over a period of length that depends on an average value of a current signal output from the other-side photodiode that receives the optical signal, the controller adjusts a magnitude of the current signal input from the driver to the laser diode based on the length of the period of the optical signal of the specific pattern.