Abstract: A touch panel including an oxide semiconductor film having conductivity is provided. The touch panel includes a transistor, a second insulating film, and a touch sensor. The transistor includes a gate electrode; a gate insulating film; a first oxide semiconductor film; a source electrode and a drain electrode; a first insulating film; and a second oxide semiconductor film. The second insulating film is over the second oxide semiconductor film so that the second oxide semiconductor film is positioned between the first insulating film and the second insulating film. The touch sensor includes a first electrode and a second electrode. One of the first and second electrodes includes the second oxide semiconductor film.

Abstract: An imaging device includes a first structure 20, and a second structure 40, in which the first structure 20 includes a first substrate 21, a temperature detection element which is formed on the first substrate 21 and detects a temperature on the basis of an infrared ray, a signal line 71, and a drive line 72, the second structure 40 includes a second substrate 41, and a drive circuit provided on the second substrate 41 and covered with a covering layer 43, the first substrate 21 and a second electrode 41 are stacked, the signal line 71 is electrically connected with the drive circuit via a signal line connection portion 100, the drive line is electrically connected with the drive circuit via a drive line connection portion, and the signal line connection portion 100 includes a first signal line connection portion 102 formed in the first structure 20 and a second signal line connection portion 106 formed in the second structure 40.

Abstract: An object is to obtain training data through an ideal image generated from an actually-shot image. A data generating method of generating data used in learning a model using a processor, the data generating method including: generating an ideal image corresponding to output data of the model from a captured image obtained by a predetermined device; and generating a degraded image corresponding to input data of the model from the ideal image.

Abstract: To generate training data setting various sensor states. A method for generating data is a method for generating training data used for machine learning from a CG model using a processor. The method for generating data includes: generating, through simulation, a first image acquired under a first imaging condition and a second image acquired under a second imaging condition that is different from the first imaging condition, in the CG model, and acquiring at least the first image and the second image as input image data in the training data.

Abstract: [Object] Training data is acquired using a computer graphics. [Solution] An image generation method includes acquiring a CG model or an artificial image generated based on the CG model and performing, by a processor, processing on the CG model or the artificial image and generating metadata of a processed image used for AI learning used for an image acquired by a sensor or the artificial image.

Abstract: An imaging device includes: a first temperature detection element 16 that detects temperature on the basis of infrared rays; a second temperature detection element 17 for temperature reference; and a drive circuit 10A including a switch circuit 101 including a butterfly switch circuit, a first current source 82A, a second current source 82B, a differential circuit 83, and an analog-digital conversion circuit 84. The first temperature detection element 16 and the second temperature detection element 17 are connected to a first input end 101A and a second input end 101B of the switch circuit. A first output end 101C and the first current source 82A are connected to a first input end 83A of the differential amplifier. A second output end 101D of the switch circuit and the second current source 82B are connected to a second input end 83B of the differential amplifier. An output end 83C of the differential amplifier is connected to an input portion of the analog-digital conversion circuit 84.

Abstract: An imaging device includes: a first temperature detection element 16 that detects temperature on the basis of infrared rays; a second temperature detection element 17 for temperature reference; and a drive circuit 10A including a switch circuit 101 including a butterfly switch circuit, a first current source 82A, a second current source 82B, a differential circuit 83, and an analog-digital conversion circuit 84. The first temperature detection element 16 and the second temperature detection element 17 are connected to a first input end 101A and a second input end 101B of the switch circuit. A first output end 101C and the first current source 82A are connected to a first input end 83A of the differential amplifier. A second output end 101D of the switch circuit and the second current source 82B are connected to a second input end 83B of the differential amplifier. An output end 83C of the differential amplifier is connected to an input portion of the analog-digital conversion circuit 84.

Abstract: A temperature detecting element 15 includes: a light-collecting portion constituted by a first light-collecting portion 101 to which infrared light is incident and a second light-collecting portion 102 to which infrared light having been exited from the first light-collecting portion 101 is incident; and a sensor portion 16 to which infrared light having been exited from the second light-collecting portion 101 is incident, wherein at least one of the first light-collecting portion 101 and the second light-collecting portion 102 is provided on a base 100 that covers the temperature detecting element 15.

Abstract: An imaging apparatus is configured of a first structure 20 and a second structure 40, in which the first structure 20 includes a first substrate 21, a plurality of temperature detection devices 15 formed on the first substrate 21 and configured to detect a temperature on the basis of an infrared ray, drive lines 72, and signal lines 71, the second structure 40 includes a second substrate 41, and a drive circuit provided on the second substrate 41 and covered with a covering layer 43, the first substrate 21 is bonded to the covering layer 43, a cavity 50 is provided between each temperature detection device 15 and the covering layer 43, and the drive lines 72 and the signal lines 71 are electrically connected to the drive circuit.

Abstract: An imaging device includes a plurality of temperature detection element units and a plurality of infrared absorption layer units arranged along a first direction and a second direction, in which: each of the temperature detection element units includes a first temperature detection element 21 and a second temperature detection element 22 adjacent to each other along the first direction; each of the infrared absorption layer units includes a first infrared absorption layer 41 and a second infrared absorption layer 42 adjacent to each other along the second direction; the first infrared absorption layer 41 is arranged above a first A region 211 and a second A region 221 and is thermally connected to the first temperature detection element 21; and the second infrared absorption layer 42 is arranged above a first B region 212 and a second B region 222 and is thermally connected to the second temperature detection element 22.

Abstract: An imaging device includes a first structure 20, and a second structure 40, in which the first structure 20 includes a first substrate 21, a temperature detection element which is formed on the first substrate 21 and detects a temperature on the basis of an infrared ray, a signal line 71, and a drive line 72, the second structure 40 includes a second substrate 41, and a drive circuit provided on the second substrate 41 and covered with a covering layer 43, the first substrate 21 and a second electrode 41 are stacked, the signal line 71 is electrically connected with the drive circuit via a signal line connection portion 100, the drive line is electrically connected with the drive circuit via a drive line connection portion, and the signal line connection portion 100 includes a first signal line connection portion 102 formed in the first structure 20 and a second signal line connection portion 106 formed in the second structure 40.

Abstract: An imaging device includes: a first temperature detection element 16 that detects temperature on the basis of infrared rays; a second temperature detection element 17 for temperature reference; and a drive circuit 10A including a switch circuit 101 including a butterfly switch circuit, a first current source 82A, a second current source 82B, a differential circuit 83, and an analog-digital conversion circuit 84. The first temperature detection element 16 and the second temperature detection element 17 are connected to a first input end 101A and a second input end 101B of the switch circuit. A first output end 101C and the first current source 82A are connected to a first input end 83A of the differential amplifier. A second output end 101D of the switch circuit and the second current source 82B are connected to a second input end 83B of the differential amplifier. An output end 83C of the differential amplifier is connected to an input portion of the analog-digital conversion circuit 84.

Abstract: An imaging apparatus is configured of a first structure 20 and a second structure 40, in which the first structure 20 includes a first substrate 21, a plurality of temperature detection devices 15 formed on the first substrate 21 and configured to detect a temperature on the basis of an infrared ray, drive lines 72, and signal lines 71, the second structure 40 includes a second substrate 41, and a drive circuit provided on the second substrate 41 and covered with a covering layer 43, the first substrate 21 is bonded to the covering layer 43, a cavity 50 is provided between each temperature detection device 15 and the covering layer 43, and the drive lines 72 and the signal lines 71 are electrically connected to the drive circuit.

Abstract: In a self-synchronous transmission scheme, received data is accurately acquired. A timing signal generating unit generates timing signals indicating different timings in synchronization with a timing at which a status of a reception signal transitions. A first data signal generating unit generates a first data signal from statuses of the reception signal before and after a timing at which a predetermined first timing signal becomes a specific value, and outputs the first data signal in synchronization with a second timing signal different from the first timing signal. A second data signal generating unit generates a second data signal from statuses of the reception signal before and after a timing at which the second timing signal becomes the specific value, and outputs the second data signal in synchronization with a timing signal different from the first timing signal.

Abstract: In a self-synchronous transmission scheme, received data is accurately acquired. A timing signal generating unit generates timing signals indicating different timings in synchronization with a timing at which a status of a reception signal transitions. A first data signal generating unit generates a first data signal from statuses of the reception signal before and after a timing at which a predetermined first timing signal becomes a specific value, and outputs the first data signal in synchronization with a second timing signal different from the first timing signal. A second data signal generating unit generates a second data signal from statuses of the reception signal before and after a timing at which the second timing signal becomes the specific value, and outputs the second data signal in synchronization with a timing signal different from the first timing signal.

Abstract: There is provided an image processing apparatus including a first polarizing unit that has a first polarization region and a second polarization region to transmit different polarized light corresponding to different viewing point images, a second polarizing unit that includes a third polarization region to transmit only transmission light of the first polarization region, a fourth polarization region to transmit only transmission light of the second polarization region, and a total transmission region to transmit the total transmission light of the first polarization region and the second polarization region, an imaging element, and an image processing unit that executes signal processing with respect to an output signal of the imaging element. The image processing unit executes correction processing to generate a two-dimensional image and executes image conversion of the two-dimensional image to generate a left eye image and a right eye image for three-dimensional image display.

Abstract: There is provided an image signal processing apparatus, comprising a demosaic processing unit receiving input of mosaic image data of each of signals obtained by a single plate imaging device having an element array composed of visible light obtaining elements obtaining visible light signals, and invisible light obtaining elements obtaining signals including invisible light components, and generating a demosaic image of each of the obtained signals; and a noise reduction processing unit receiving input of the demosaic image to execute correction of pixel values of the demosaic image obtained by the visible light obtaining elements on the basis of edge information extracted from the demosaic image of the signals obtained by the invisible light obtaining elements.

Abstract: There is provided an image processing apparatus including a first polarizing unit that has a first polarization region and a second polarization region to transmit different polarized light corresponding to different viewing point images, a second polarizing unit that includes a third polarization region to transmit only transmission light of the first polarization region, a fourth polarization region to transmit only transmission light of the second polarization region, and a total transmission region to transmit the total transmission light of the first polarization region and the second polarization region, an imaging element, and an image processing unit that executes signal processing with respect to an output signal of the imaging element. The image processing unit executes correction processing to generate a two-dimensional image and executes image conversion of the two-dimensional image to generate a left eye image and a right eye image for three-dimensional image display.

Abstract: There is provided an image processing apparatus including a first polarizing unit that has a first polarization region and a second polarization region to transmit different polarized light corresponding to different viewing point images, a second polarizing unit that includes a third polarization region to transmit only transmission light of the first polarization region, a fourth polarization region to transmit only transmission light of the second polarization region, and a total transmission region to transmit the total transmission light of the first polarization region and the second polarization region, an imaging element, and an image processing unit that executes signal processing with respect to an output signal of the imaging element. The image processing unit executes correction processing to generate a two-dimensional image and executes image conversion of the two-dimensional image to generate a left eye image and a right eye image for three-dimensional image display.

Abstract: There is provided an image signal processing apparatus, comprising a demosaic processing unit receiving input of mosaic image data of each of signals obtained by a single plate imaging device having an element array composed of visible light obtaining elements obtaining visible light signals, and invisible light obtaining elements obtaining signals including invisible light components, and generating a demosaic image of each of the obtained signals; and a noise reduction processing unit receiving input of the demosaic image to execute correction of pixel values of the demosaic image obtained by the visible light obtaining elements on the basis of edge information extracted from the demosaic image of the signals obtained by the invisible light obtaining elements.