Abstract: An image processing apparatus according to the present technology includes: a distortion addition processing unit that inputs object unit images that are images for a plurality of objects constituting one frame image, and performs addition processing of rolling shutter distortion for each of the object unit images on the basis of information on a rolling shutter time difference; and a composite image generation unit that generates a composite image obtained by combining the object unit images subjected to the addition processing by the distortion addition processing unit into one frame image.

Abstract: The present disclosure relates to an image generation apparatus, an image generation method, and a program that make it possible to correctly evaluate recognition performance of an image recognition algorithm. An image generation unit generates a plurality of simulation images in which a plurality of images having different accumulation times is reproduced on the basis of a physical quantity corresponding to light applied to an image sensor, and an HDR synthesis unit performs HDR synthesis on a plurality of the simulation images. The present technology can be applied to an image sensor model.

Abstract: The present invention relates to a nickel-based self-fluxing alloy, a glass manufacturing member, a mold, and a glass gob transporting member having an improved slipperiness against a glass gob. A nickel-based self-fluxing alloy used in a glass manufacturing member for transporting or molding glass with a viscosity of log ?=3 to 14.6, comprises: boron (B) in an amount of ranging from 0 percent to 1.5 percent by mass; hard particles; and silicon (Si). Preferably, the amount of boron (B) ranges from 0 percent to less than 1.0 percent by mass. Preferably, the hard particles contain at least one of a carbide, a nitrides, an oxide and a cermet. Preferably, the nickel-based self-fluxing alloy comprises at least one metal selected from Group 4, 5 and 6 elements in an amount of ranging from 0 percent to 30 percent by mass.

Abstract: The rendering system of the present disclosure includes an image sensor model having a rolling shutter function of performing exposure in units of line blocks using one or a plurality of pixel rows as one line block; and a rendering engine for processing and drawing image data. The image sensor model controls the rendering engine so that only a region of a line block being exposed is drawn.

Abstract: The present invention relates to a nickel-based self-fluxing alloy, a glass manufacturing member, a mold, and a glass gob transporting member having an improved slipperiness against a glass gob. A nickel-based self-fluxing alloy used in a glass manufacturing member for transporting or molding glass with a viscosity of log ?=3 to 14.6, comprises: boron (B) in an amount of ranging from 0 percent to 1.5 percent by mass; hard particles; and silicon (Si). Preferably, the amount of boron (B) ranges from 0 percent to less than 1.0 percent by mass. Preferably, the hard particles contain at least one of a carbide, a nitrides, an oxide and a cermet. Preferably, the nickel-based self-fluxing alloy comprises at least one metal selected from Group 4, 5 and 6 elements in an amount of ranging from 0 percent to 30 percent by mass.

Abstract: The present technology relates to an image capture device, a method of image capture, a signal processing device, a method of signal processing, and a program capable of capturing reliably a blinking image capture target. A predetermined image capture timing of an image capture unit is controlled so that image capture is performed N times during an exposure time in which at least a part of a turn-on period in which an image capture target is on overlaps with an exposure time of image capture of at least one time at a timing of dividing a blinking cycle in which the image capture target to be captured by the image capture unit configured to perform image capture at the image capture timing blinks into N equal parts where N represents more than one. The present technology is applicable to, in one example, a camera unit or the like used to capture an image.

Abstract: Provided is an imaging control apparatus, method, and a vehicle, capable of efficiently analyzing an image. Among a short accumulation signal and a long accumulation signal of a photographed image, the short accumulation signal of a preceding frame is set to correspond to the short accumulation signal of a succeeding frame. The signal of the succeeding frame is processed by using the short accumulation signal of the preceding frame. The present technology is applicable to control imaging in an apparatus that supports driving of a vehicle by performing various processing, in each of frames of an N-frame sequence, for example, of recognizing various target objects necessary in supporting the driving of the vehicle, such as an obstacle, a guidance object, and other target objects, for example.

Abstract: The present technology relates to an image capture device, a method of image capture, a signal processing device, a method of signal processing, and a program capable of capturing reliably a blinking image capture target. A predetermined image capture timing of an image capture unit is controlled so that image capture is performed N times during an exposure time in which at least a part of a turn-on period in which an image capture target is on overlaps with an exposure time of image capture of at least one time at a timing of dividing a blinking cycle in which the image capture target to be captured by the image capture unit configured to perform image capture at the image capture timing blinks into N equal parts where N represents more than one. The present technology is applicable to, in one example, a camera unit or the like used to capture an image.

Abstract: The present technology relates to an imaging control apparatus and method, and a vehicle, capable of efficiently analyzing an image. Among a short accumulation signal and a long accumulation signal of a photographed image, the short accumulation signal of a preceding frame is set to correspond to the short accumulation signal of a succeeding frame. The signal of the succeeding frame is processed by using the short accumulation signal of the preceding frame. The present technology is applicable to control imaging in an apparatus that supports driving of a vehicle by performing various processing, in each of frames of an N-frame sequence, for example, of recognizing various target objects necessary in supporting the driving of the vehicle, such as an obstacle, a guidance object, and other target objects, for example.

Abstract: The present technology relates to an image capture device, a method of image capture, a signal processing device, a method of signal processing, and a program capable of capturing reliably a blinking image capture target. A predetermined image capture timing of an image capture unit is controlled so that image capture is performed N times during an exposure time in which at least a part of a turn-on period in which an image capture target is on overlaps with an exposure time of image capture of at least one time at a timing of dividing a blinking cycle in which the image capture target to be captured by the image capture unit configured to perform image capture at the image capture timing blinks into N equal parts where N represents more than one. The present technology is applicable to, in one example, a camera unit or the like used to capture an image.

Abstract: Provided is an image processing apparatus including a generation section which generates, based on a plurality of images captured at different exposure times, index information representing an index of a brightness of the plurality of images, and a detection section which detects a moving photographic subject included in the plurality of images based on the index information.

Abstract: The present technology relates to an image capture device, a method of image capture, a signal processing device, a method of signal processing, and a program capable of capturing reliably a blinking image capture target. A predetermined image capture timing of an image capture unit is controlled so that image capture is performed N times during an exposure time in which at least a part of a turn-on period in which an image capture target is on overlaps with an exposure time of image capture of at least one time at a timing of dividing a blinking cycle in which the image capture target to be captured by the image capture unit configured to perform image capture at the image capture timing blinks into N equal parts where N represents more than one. The present technology is applicable to, in one example, a camera unit or the like used to capture an image.

Abstract: There is provided an image sensor that includes a pixel array section, a column processing section, and a row control section. The pixel array section is configured to include two or more shared pixel cells arranged in a two-dimensional array, the shared pixel cells each including a plurality of pixels that output electric signals by photoelectric conversion. The column processing section is configured to process the electric signals that are read at the same time from the shared pixel cells on a plurality of rows in the two-dimensional array. The row control section is configured to perform access control differently between one and another of the rows for reading the electric signals from the pixels in the shared pixel cells.

Abstract: A solid-state imaging device includes a pixel array unit, a pixel drive unit, and a signal processing unit. The pixel array unit includes first pixels and second pixels, the first pixels corresponding to respective color components of a plurality of color components, the second pixels having luminance components as main components, the first pixels and the second pixels being arranged regularly in a matrix. The pixel drive unit is configured to drive the pixels arranged in the pixel array unit. The signal processing unit is configured to execute predetermined weighted addition processing and calculate a pixel value of an output image by using only pixel information acquired from the first pixels.

Abstract: Provided is an image processing apparatus including a generation section which generates, based on a plurality of images captured at different exposure times, index information representing an index of a brightness of the plurality of images, and a detection section which detects a moving photographic subject included in the plurality of images based on the index information.

Abstract: A solid-state imaging device includes a pixel array unit, a pixel drive unit, and a signal processing unit. The pixel array unit includes first pixels and second pixels, the first pixels corresponding to respective color components of a plurality of color components, the second pixels having luminance components as main components, the first pixels and the second pixels being arranged regularly in a matrix. The pixel drive unit is configured to drive the pixels arranged in the pixel array unit. The signal processing unit is configured to execute predetermined weighted addition processing and calculate a pixel value of an output image by using only pixel information acquired from the first pixels.

Abstract: There is provided an image sensor that includes a pixel array section, a column processing section, and a row control section. The pixel array section is configured to include two or more shared pixel cells arranged in a two-dimensional array, the shared pixel cells each including a plurality of pixels that output electric signals by photoelectric conversion. The column processing section is configured to process the electric signals that are read at the same time from the shared pixel cells on a plurality of rows in the two-dimensional array. The row control section is configured to perform access control differently between one and another of the rows for reading the electric signals from the pixels in the shared pixel cells.

Abstract: A biaxially stretch blow-molded container having a layer of a trimethylene naphthalate type polyester resin, wherein the layer of the trimethylene naphthalate type polyester resin in at least the container body portion satisfies either one or both of: (i) a Tc1 calorific value is not larger than 10 J/g in the DSC measurement; and (ii) tan ? maximum temperature?90° C. and tan ? maximum value?0.4 in the dynamic viscoelasticity measurement, the biaxially stretch blow-molded container effectively exhibiting excellent gas-barrier property possessed by the trimethylene naphthalate type polyester resin.

Abstract: A biaxially stretch blow-molded container having a layer of a trimethylene naphthalate type polyester resin, wherein the layer of the trimethylene naphthalate type polyester resin in at least the container body portion satisfies either one or both of: (i) a Tc1 calorific value is not larger than 10 J/g in the DSC measurement; and (ii) tan ? maximum temperature?90° C. and tan ? maximum value?0.4 in the dynamic viscoelasticity measurement, the biaxially stretch blow-molded container effectively exhibiting excellent gas-barrier property possessed by the trimethylene naphthalate type polyester resin.

Abstract: Embodiments of the invention realize a power-save mode which prevents reduction in performance of a data storage device. The HDD as an embodiment of the present invention, upon receiving a request for switching to a power-save mode (PMREQ) from the host, judges whether the serial interface should be switched to the power-save mode based on the execution status of the command. When the HDD has determined not to switch the serial interface to the power-save mode, the HDD transmits a negative response (PMNACK) to the host and keep the serial interface in the active mode. By denying switching to a power-save mode when data transfer is executed within a short period of time, etc., it is possible to prevent reduction in performance of the data storage device.