Abstract: The socket 20 comprises a first contact probe 21 which has a first end which is to contact with a first terminal 91 of the DUT 90, a second contact probe 22 which has a second end which is to contact with a second terminal 92 of the DUT 90, and an inner housing 23 which holds the first and second contact probes 21, 22 so that the first end and the second end are located on substantially the same virtual plane VP, and the length L2 of the second contact probe 22 is shorter than the length L1 of the first contact probe 21. The interposer 30 comprises a substrate 31 which has a through hole 311 into which the first contact probe 21 is to be inserted, and a wiring pattern 32 which is disposed on the substrate 31, and the wiring pattern 32 has a pad 321 with which the second contact probe 22 is to contact.

Abstract: A high-temperature-steam-oxidation-resistive coated reinforcement fiber applicable to a fiber reinforced composite, is provided with: a reinforcement fiber; a coating layer covering the reinforcement fiber and including a rare-earth silicate; an exfoliative layer intervening in an interface between the coating layer and the reinforcement fiber; and a supplemental coating layer covering the reinforcement fiber, the exfoliative layer and the coating layer.

Abstract: The purpose of the present invention is to provide an epoxy resin composition which has excellent viscosity stability, and when cured, can provide a resin cured product which has high flame retardancy and excellent mechanical properties, and a prepreg and fiber-reinforced composite material using the epoxy resin composition. An embodiment of the epoxy resin composition according to the present invention which achieves the purpose contains all components [A]-[C]. [A]: A reactive diluent having a specific structure and a viscosity of 2 Pa·s or less at 25° C. [B]: An epoxy resin having three of more functional groups. [C]: An amine-based curing agent having a specific structure.

Abstract: An electro-optical apparatus 300 includes a first electro-optical panel 201 that is a segment panel, a first display driver 101 that drives the first electro-optical panel 201, a second electro-optical panel 202 that is a matrix panel, and is arranged to overlap the first electro-optical panel 201 in planar view of the first electro-optical panel 201, and a second display driver 102 that displays an image on the second electro-optical panel 202 by driving the second electro-optical panel 202. The first electro-optical panel 201 is arranged on the side from which an image is visually recognizable. The second display driver 102 outputs a drive voltage to a segment electrode of he first electro-optical panel 201.

Abstract: A burn-in board capable of realizing a uniform temperature distribution inside a burn-in board is provided. A burn-in board includes: a plurality of sockets; a burn-in board body including an upper surface for mounting the sockets thereon and a lower surface on the side opposite to the upper surface; a reinforcement frame contacting the lower surface; a bottom cover contacting the reinforcement frame; a heat conduction plate interposed between the burn-in board body and the bottom cover; and a heat conduction sheet thermally connecting the burn-in board body to the heat conduction plate, in which the reinforcement frame presses the heat conduction plate toward the heat conduction sheet.

Abstract: A battery monitoring apparatus includes a battery ECU, satellite devices each of which measures the voltage at a battery cell in response to a command signal from the battery ECU, and a wireless module which achieves a wireless communication between the battery ECU and each of the satellite devices after a wireless connection between the battery ECU and each of the satellite devices is completed. When receiving a start signal outputted before a start switch for a drive power source of the vehicle is turned on, the wireless module is activated to start the wireless connection between the battery ECU and each of the satellite devices. This establishes and completes the wireless connections faster than when the wireless module is activated simultaneously with turning on of the start switch for the drive power source. This achieves quick monitoring of the state of the battery cells.

Abstract: A display controller 100 includes an interface circuit 120 that receives abnormal display line detection information from a display driver 300 that drives an electro-optical panel 460, and a processing circuit 130 that controls the display driver 300. The processing circuit 130 performs determination on an abnormal display area based on the abnormal display line detection information. If a specific display pattern is displayed in the abnormal display area, the processing circuit 130 outputs, via the interface circuit 120, image data for displaying the specific display pattern in a destination display area that is a display area different from the abnormal display area.

Abstract: A film formation apparatus includes a carrying unit circulating and carrying an electronic component in a sputtering chamber, a film formation processing unit including a mount surface and a mount member which is mounted on the mount surface, and on which the electronic component is placed. The mount member includes a holding sheet having an adhesive surface, and a non-adhesive surface, and a sticking sheet having a first sticking surface with adhesiveness sticking to the non-adhesive surface, and a second sticking surface with adhesiveness sticking to the mount surface of the tray. The adhesive surface includes a pasting region for pasting the electronic components. The first sticking surface sticks across an entire region of the non-adhesive surface corresponding to at least the pasting region to provide a file formation apparatus which employs a simple structure that is capable of suppressing heating of electronic components.

Abstract: A display driver includes a processing circuit to which information regarding a temperature range is input and that performs gamma conversion processing on display data with respect to gray level. In the gamma conversion processing, at a first set point, a first output gray level is gray level m when the temperature range is a first temperature range, and is gray level n (m and n are integers of zero or more and are different to each other) when the temperature range is a second temperature range, and the processing circuit changes, when the temperature range has transitioned from the first temperature range to the second temperature range, the first output gray level from gray level m to gray level n by a step smaller than |n?m|.

Abstract: A display driver includes a drive circuit that receives input of a first reference voltage to an nth reference voltage (where n is an integer of two or more), and outputs a drive voltage that is based on a grayscale voltage obtained by voltage division of an ith reference voltage and an (i+1)th reference voltage (where i is an integer of n?1 or less), and a control circuit that utilizes frame rate control on first display data corresponding to a grayscale voltage obtained by voltage division of the first reference voltage and a second reference voltage to generate second display data, and supplies the second display data to the drive circuit.

Abstract: The scan line drive circuit outputs selection signals GV3 and GV4 to select scan lines in the display panel. Assuming that a period in which a data voltage SV1 after being subjected to inversion of the polarity thereof is supplied to a data line in the display panel is a first period TSD, and that a period in which the data voltage SV1 after not being subjected to inversion of the polarity thereof is supplied to the data line is a second period TSC, the period TPD from the start of the first period TSD until the selection signal GV4 is activated is longer than the period TPC from the start of the second period TSC until the selection signal GV3 is activated.

Abstract: An information processing apparatus according to one aspect of the present technology acquires a viewing log of a content item including at least one of a moving image or a sound, acquires display data representing details of the content item at each time, and displays a chart representing a transition of a viewing state of the content item specified on the basis of the viewing log, and the display data representing details of the content item at each time in a time zone for which the transition of the viewing state is represented by the chart, on a screen that is one and the same. The present technology can be applied to a system used for monitoring the viewing state of the content item.

Abstract: An electro-optical device includes, on a substrate, three sub-pixels, three sampling switches, three data lines, three image signal lines, and three lead wiring lines. The three sub-pixels correspond to red, green and blue, respectively. The three sub-pixels are included in a unit pixel. The three sampling switches correspond to the three sub-pixels, respectively. The three data lines electrically connect the three sub-pixels and the three sampling switches with each other, respectively. The three image signal lines, which are provided on a side opposite to the three sub-pixels with respect to the three sampling switches, correspond to the three sampling switches, respectively. The three lead wiring lines electrically connect the three sampling switches and the three image signal lines with each other, respectively. Among the three sampling switches, a sampling switch corresponding to green is disposed close to the three image signal lines compared to other two sampling switches.

Abstract: An electronic component, an electronic component manufacturing apparatus, and an electronic component manufacturing method are provided which enable an electromagnetic wave shielding film formed on a package to achieve an excellent shielding characteristic. An electronic component 10 includes an electromagnetic wave shielding film 13 formed on the top face of a package sealing elements. The thickness of the electromagnetic wave shielding film 13 on the top face of the package 12 is 0.5 to 9 ?m, and the relationship between the average height Rc of the roughness curvature factor of the top face of the package 12 and the thickness Te of the electromagnetic wave shielding film 13 is Rc?2Te.

Abstract: A display driver includes a processing circuit to which information regarding a temperature range is input and that performs gamma conversion processing on display data with respect to gray level. In the gamma conversion processing, at a first set point, a first output gray level is gray level m when the temperature range is a first temperature range, and is gray level n (m and n are integers of zero or more and are different to each other) when the temperature range is a second temperature range, and the processing circuit changes, when the temperature range has transitioned from the first temperature range to the second temperature range, the first output gray level from gray level m to gray level n by a step smaller than |n?m|.

Abstract: A display driver includes a processing circuit that performs gray level gamma conversion processing on display data, a memory that stores correspondence information, and a drive circuit. The memory stores lower n bits of m-bit output gray level data in an output gray level group, the processing circuit generates output gray level data corresponding to the m-bit input gray level data based on lower n-bit data, and the drive circuit outputs a drive voltage based on the output gray level data.

Abstract: A display panel has a first pixel group selected by a first scan line, and second pixel group selected by second scan line. A data line is shared by pixel in the first pixel group and a pixel in the second pixel group. In first scanning period, a driving unit in a circuit device outputs a data voltage with first polarity to the first data line, and outputs data voltage with second polarity, which is polarity opposite to the first polarity, to the second data line. In second scanning period, the driving unit outputs a data voltage with third polarity to the first data line, and outputs a data voltage with fourth polarity, which is polarity opposite to the third polarity, to the second data line. A polarity setting unit in the circuit device sets the first polarity, the second polarity, the third polarity, and the fourth polarity.

Abstract: An electro-optical device includes a data line driving circuit that supplies a video signal, in which a data voltage having magnitude of voltage applied to the data lines in the amount of k (k>1) in accordance with an input video divided into frames is subjected to time division multiplexing, to a signal line, a selection circuit that selects at least one data line which becomes a supply destination of the video signal supplied to the signal line, a scanning line driving circuit that selects at least one scanning line, a control circuit that controls a predetermined precharge voltage to be applied to the data lines in the amount of k in the precharge time period, and a correction circuit that corrects a gradation level difference between the pixel applied with the precharge voltage and the pixel applied with no precharge voltage.

Abstract: A scanning line driving circuit sequentially selects each of a plurality of scanning lines for each unit period. A signal supply circuit supplies, to a signal line, a gradation potential in accordance with a designated gradation of a pixel in a write period within the unit period. The signal supply circuit supplies a pre-charge potential to the signal line in a pre-charge period before the start of the write period in a first unit period of the plurality of unit periods, and the supply of the pre-charge potential to the signal line stops in a second unit period.

Abstract: A film formation apparatus includes a carrying unit circulating and carrying an electronic component in a chamber, a film formation processing unit forming a film on the electronic component, a tray carried by the carrying unit, and including a mount surface, and a mount member which is mounted on the mount surface, and on which the electronic component is placed. The mount member includes a holding sheet having an adhesive surface, and a non-adhesive surface, and a sticking sheet having a first sticking surface with adhesiveness sticking to the non-adhesive surface, and a second sticking surface with adhesiveness sticking to the mount surface of the tray. The adhesive surface includes a pasting region for pasting the electronic components. The first sticking surface sticks across an entire region of the non-adhesive surface corresponding to at least the pasting region.