Abstract: A digital camera with a printer is a digital camera with a printer and includes a communication unit that communicates with a digital camera with a printer that is another apparatus, and an image composition unit that generates a composite image in which a first image captured by the digital camera with a printer that is an owned apparatus and a second image captured by the other apparatus are composited, in which the communication unit transmits the composite image to the other apparatus. A user of the other apparatus can also obtain the composite image. Accordingly, the composite image can be enjoyed by capturing images using a plurality of cameras.

Abstract: In a system for monitoring surroundings of a vehicle, an optical ranging device including a light emitting unit, a light receiving unit configured to receive reflected light from a measurement region, toward which the illumination light from the light emitting unit is projected, and a measurement unit configured to measure a distance to an object within the measurement region using a signal corresponding to a state of the reflected light, output from the light receiving unit. A shape of the measurement region as the illumination light is projected along a horizontal direction onto a cylindrical plane along a vertical direction, surrounding the optical ranging device, is a narrow-at-end shape. The optical ranging device and another optical ranging device are arranged on the vehicle such that the illumination light from the optical ranging device has a larger depression angle than illumination light from the other optical ranging device.

Abstract: An object of the present invention is to provide a processing device, a processing method, a reproducing method, and a program capable of performing appropriate processing. A processing device according to the present embodiment includes: an envelope computation unit computing an envelope for a frequency response of a sound pickup signal; a scale conversion unit generating scale converted data by performing scale conversion and data interpolation on frequency data of the envelope; a normalization factor computation unit dividing the scale converted data into a plurality of frequency bands, obtaining a characteristic value for each frequency band, and computing a normalization factor, based on the characteristic values; and a normalization unit, using the normalization factor, normalizing the sound pickup signal in the time domain.

Abstract: A light range finding apparatus is provided with a light emitting optical system that projects a pattern light having an irradiation region and a non-irradiation region; a light receiving sensor including an arrayed light receiving element; a light receiving optical system that receives a reflected light of the pattern light and enlarges a portion of the reflected light corresponding to the irradiation region to be larger than a single light receiving element and causes the enlarged reflected light to be incident on the light receiving sensor; a distance measurement unit that measures a distance to the object based on an output of the light receiving sensor; and a positional alignment section that performs, based on the output of the light receiving sensor, a positional alignment of at least a part of the light emitting optical system and the light receiving optical system.

Abstract: To provide an out-of-head localization system, a filter generation device, a method, and a program capable of appropriate processing, an out-of-head localization system according to this embodiment includes a measurement device that measures transfer characteristics by using a microphone worn on a user's ear before the user U sits on a seat, an out-of-head localization device that is installed in the seat and performs out-of-head localization by using a filter appropriate to the transfer characteristics, and a server terminal that transmits the filter appropriate to the transfer characteristics to the out-of-head localization device on the basis of identification information of the user U.

Abstract: Provided are an out-of-head localization system, a filter generation device, a method, and a program capable of appropriate processing. A processing device according to an embodiment includes a frequency information acquisition unit that acquires frequency information on the basis of a frequency response of a filter used in filter processing on a reproduction signal, a time information acquisition unit that acquires, on the basis of the frequency information, time information of a reproduction signal, a time signal extraction unit that extracts, on the basis of the time information, a time signal corresponding to at least some time of the reproduction signal, a filter processing unit that performs filter processing on the time signal, and a gain acquisition unit sthat acquires a gain on the basis of the time signal not having undergone filter processing and a processed time signal having undergone filter processing.

Abstract: A group delay compensation filter includes: a waveguide that has a first slot and that is configured to transmit a signal; and a first dielectric resonator that includes: a first dielectric, a first metal layer formed over a surface of the first dielectric, and a first opening provided in the first metal layer, wherein the first dielectric resonator is in contact with the waveguide with the first opening coupled to the first slot, and wherein the first dielectric resonator is configured to compensate group delay in a first frequency band of the signal.

Abstract: A method of generating a filter according to an embodiment includes producing a shaped object to correspond to a user's ear canal using an impression material, producing the user's ear impression based on the shaped object, installing a microphone in an ear canal part penetrating to an inner ear side of the ear impression, installing an earphone or a headphone in the ear impression, measuring transfer characteristics by the microphone collecting a measurement signal output from the earphone or the headphone, and generating a filter based on the transfer characteristics.

Abstract: In a time-of-flight distance measurement device, a light receiving device is driven by a sequence having a matrix of a phase number n, a value sampled on the basis of the n rank matrix with respect to the phase number n is linearly calculated, and a waveform equivalent to the waveform sampled in a 1/n step is detected. A linear operation is performed on a sampled value based on the matrix with the rank n with respect to the phase number n, thereby being capable of restoring the waveform equivalent to the waveform sampled in the 1/n steps, and determining whether the shape of the light emission waveform is normal, or not. As a result, the shape of the light emission waveform can be monitored without interrupting a distance measurement.

Abstract: A printer having a printing unit that prints an image; a light emitting unit capable of switching colors of light emission; and a processor configured to: acquire an image to be printed from an external device; detect representative colors of regions by dividing the image to be printed by the printing unit into a plurality of regions; and control light emission of the light emitting unit, wherein the processor further configured to cause the light emitting unit to switch colors of the light emission based on the representative colors of the regions in order according to a printing progress of the image to be printed by the printing unit.

Abstract: A microphone according to an embodiment includes: an ear chip including a cylindrical part with a hollow part formed therein, and a contact part disposed outside the cylindrical part and configured to come into contact with an inner wall surface of an ear canal; a cable lead out to a gap between the cylindrical part and the contact part; and a microphone element disposed in the hollow part and connected to the cable.

Abstract: A light emitting element emits a modulated light modulated in a pattern having a repetitive period toward a space. A driving unit drives the light emitting element. A light receiving element distributes charges corresponding to an incident light containing a reflected light obtained by reflecting the modulated light on an object to storage capacitors and stores the distributed charges. A control unit controls an exposure of the light receiving element. A signal processing unit measures a distance to the object by using a value sampled by the light receiving element. The control unit controls the exposure of the light receiving element to give a sensitivity to at least one high-order harmonic. The signal processing unit linearly combines a component of a fundamental wave with a component of the at least one high-order harmonic to measure the distance to the object.

Abstract: A group delay compensation filter includes: a waveguide that has a first slot and that is configured to transmit a signal; and a first dielectric resonator that includes: a first dielectric, a first metal layer formed over a surface of the first dielectric, and a first opening provided in the first metal layer, wherein the first dielectric resonator is in contact with the waveguide with the first opening coupled to the first slot, and wherein the first dielectric resonator is configured to compensate group delay in a first frequency band of the signal.

Abstract: A semiconductor apparatus, a solid-state image sensing apparatus, and a camera system capable of reducing interference between signals transmitted through adjacent via holes, preventing an increase in the number of the via holes, reducing the area of a chip having sensors thereon and the number of mounting steps thereof. First and second chips are bonded together to form a laminated structure, a wiring between the first chip and the second chip being connected through via holes, the first chip transmitting signals obtained by time-discretizing analog signals generated by respective sensors to the second chip through the corresponding via holes, the second chip sampling the signals transmitted from the first chip through the via holes at a timing different from a timing at which the signals are sampled by the first chip and quantizing the sampled signals to obtain digital signals.

Abstract: A first sound detection unit is installed in a predetermined member forming a vehicle so as to detect solid vibration of the member and convert the solid vibration into an electrical sound signal. A second sound detection unit detects vibration of air inside the vehicle and converts the vibration into an electrical sound signal. A data recording unit records at least one of the sound signal detected by the first sound detection unit and the sound signal detected by the second sound detection unit in a recording medium. The sound signal detected by the first detection unit and recorded in the recording medium is corrected by using the sound signal detected by the second sound detection unit, or the sound signal detected by the second detection unit and recorded in the recording medium is corrected by using the sound signal detected by the first detection unit.

Abstract: A microphone according to an embodiment includes: an ear chip including a cylindrical part with a hollow part formed therein, and a contact part disposed outside the cylindrical part and configured to come into contact with an inner wall surface of an ear canal; a cable lead out to a gap between the cylindrical part and the contact part; and a microphone element disposed in the hollow part and connected to the cable.

Abstract: A time-of-flight distance measuring device divides a base exposure period into a plurality of sub exposure periods and holds without resetting an electric charge stored in the sub exposure period for a one round period which is one round of the plurality of sub exposure periods. The distance measurement value of short time exposure is acquired during the one round period and the distance measurement value of long time exposure is acquired during a plurality of the one round periods. Both of the distance measurement value of the long time exposure and the distance measurement value of the short time exposure can be acquired from the same pixel. With this, a dynamic range is expanded without being restricted by a receiving state of reflected light, optical design of received light, and an arrangement of pixels.

Abstract: In a distance measuring apparatus, an irradiating unit irradiates a measurement region with a pattern light comprised of first and second luminous patterns. The second luminous pattern has a relatively low intensity lower than the intensity of the first luminous pattern. A light receiving sensor receives, for each pixel, a return light component based on reflection of the pattern light by a target object. A measurement controller determines whether an intensity of each return light component received by the corresponding pixel satisfies a measurement condition, and obtains, as effective distance information, at least one distance value of at least one pixel of the light receiving sensor when it is determined that the intensity of the return light component received by the at least one pixel satisfies the measurement condition.

Abstract: A digital signal processing circuit measures a distance according to a plurality of modulation frequencies including a first modulation frequency and a second modulation frequency lower than the first modulation frequency. The digital signal processing circuit is configured such that, when measuring the distance at the first modulation frequency, a storage capacitance of a light receiving element 6 stores or discharges electric charges according to the timing when the polarity of a phase is controlled by a light emission control unit at each transmission of a sub sequence and the distance is measured according to the electric charges stored in the storage capacitance. The digital signal processing circuit corrects the distance measurement result based on the measurement result at the first modulation frequency and the measurement result at the second modulation frequency.

Abstract: The present disclosure relates to a time-of-flight distance measuring device. The light source includes a plurality of emitting portions, each of which illuminates a respective one of the sub-regions. The light receiver includes a plurality of receiving portions corresponding to respective ones of the emitting portions. The first controller controls (i) a first emitting portion to emit the emitted light including an Nth-order harmonic component of a fundamental frequency and (ii) a second emitting portion to emit the emitted light including an Mth-order harmonic component. The second controller controls a particular receiving portion corresponding to the first emitting portion to be sensible to the Nth-order Mth-order harmonic components. The multipath detector detects occurrence of the multipath error when the particular receiving portion senses both the Nth-order and Mth-order components.