Abstract: An electronic device 10 comprises chip capacitors 20a and 20b, an accommodation recess 62 accommodating the chip capacitors 20a and 20b, and a case 60 including a protrusion 64 partitioning the accommodation recess 62 into a first accommodation space 62a and a second accommodation space 62b along the X-axis direction. The protrusion 64 includes a first protrusion 64a and a second protrusion 64b disposed away from the first protrusion 64a along the Y-axis direction. The first protrusion 64a and the second protrusion 64b are disposed with a communication space 69 provided between the first protrusion 64a and the second protrusion 64b, so that the first accommodation space 62a and the second accommodation space 62b communicate.

Abstract: A navigation device includes an own vehicle position detecting unit configured to detect position information of own vehicle; a route setting unit configured to set a guidance route that guides the own vehicle to a destination on the basis of a first map including information of a traveling route and the position information of the own vehicle; a matching unit configured to match a position of the own vehicle as a first own position with the traveling route where the own vehicle travels on the first map on the basis of the position information of the own vehicle; a driving lane detecting unit configured to match the position of the own vehicle as a second own position with a driving lane where the own vehicle travels on a second map on the basis of the second map including information of the driving lane in the traveling route and the position information of the own vehicle; and a calculating unit configured to determine whether the second own position is included in the first own position.

Abstract: A distance measurement system includes a distance measurement device and an external processing device. Here, the distance measurement device receives reflected light from a subject for a plurality of exposure periods in a frame in which irradiation light is emitted, switches a plurality of distance calculation expressions according to an amount of charge measured for each exposure period, and calculates a measured distance to the subject from the amount of charge measured for each exposure period. The external processing device acquires the measured distance from the distance measurement device and performs data processing. Then, the external processing device predicts a measured distance including a distance error caused by an influence of multipath. The external processing device generates a correction expression for correcting the measured distance. The external processing device corrects the measured distance acquired from the distance measurement device using the correction expression.

Abstract: The distance measurement system is a system for measuring a distance to a target by a time of flight of light using a plurality of distance measurement image pickup apparatuses. The plurality of distance measurement image pickup apparatuses may emit pulsed light rays at a plurality of different pulse widths. Further, intervals of pulsed light rays from the plurality of distance measurement image pickup apparatuses are set to be proportional to pulse widths in the respective distance measurement image pickup apparatuses. Further, the respective distance measurement image pickup apparatuses emit pulsed light rays at intervals of the pulsed light rays corresponding to pulse widths and the intervals of the pulsed light rays different from each other.

Abstract: The distance measurement system is a system for measuring a distance to a target by a time of flight of light using a plurality of distance measurement image pickup apparatuses. The plurality of distance measurement image pickup apparatuses emits pulsed light at different intervals having a relatively prime relationship. Further, an interval of pulsed light rays is set based on any one of (1) a value obtained by raising a prime number to a power of a natural number of 2 or more used as an exponent, (2) a value obtained by multiplying a prime number by a natural number of 2 or more used as an integer, and (3) a value obtained by multiplying the value obtained by raising the prime number to the power by a natural number of 2 or more used as an integer.

Abstract: At a preparatory step for correction, in a state that a reflective tape made with a retroreflective material is pasted in advance onto a floor surface of a measurement space in a direction away from the distance-measuring device, a distance La to an inside area of the reflective tape, and a distance Lb to an outside area of the reflective tape adjacent to the inside area are measured by the distance-measuring device, while measurement positions Y are being scanned along the reflective tape. A correction formula for converting the distance Lb to the distance La is created from a relationship between the distance La and the distance Lb obtained at each measurement position Y. At an actual measurement step, a distance (actual measurement value x) to the target object measured by the distance-measuring device is corrected in accordance with the correction formula, and a measurement-distance corrected value y is calculated.

Abstract: As a preparatory step for correction, a measurement sample is placed such that a distance of the measurement sample from the distance measuring device becomes a set value L1, a distance to the measurement sample 3? is measured by the distance measuring device, and a measurement value L2 is obtained. The measurement value L2 corresponding to a plurality of values of the set value L1 is acquired, while the set value L1 is changed to the plurality of values, and a correction formula for converting the measurement value L2 to the set value L1 is created on a basis of a relationship between the acquired set value L1 and measurement value L2. As an actual measurement step, a distance (actual measurement value x) to the target object 3 measured by the distance measuring device is corrected in accordance with the correction formula, and a measurement-distance corrected value y is calculated.

Abstract: Provided is a separator for fuel cell that can reduce the initial contact resistance and the contact resistance under the corrosive environment. A separator for fuel cell includes a metal substrate and a surface layer on the surface of the metal substrate. The surface layer includes CNT and a Si-based binder. The surface layer has the surface coverage of the CNT that is 90% or more and the ratio of the Si-based binder that is 40% or more.

Abstract: A sealed battery is provided in which a case is partially provided with a safety valve that is provided with a thin portion, which is formed thinner than the peripheral portion of the safety valve. A portion of the safety valve surrounding the thin portion is provided with a slit for preventing heat conduction from the other portions of the case to the thin portion, said slit being formed so as to surround the thin portion.

Abstract: An opening-closing control device of a slide door that is configured to slide along a body side surface of a vehicle in a vehicle front-back direction using a motor as a drive source in order to open and close an entrance of the vehicle may include a touch panel for performing an opening-closing operation of the slide door, which touch panel is attached to an outer surface of a member constituting an outer shell of the vehicle, wherein the touch panel has a plurality of manipulating portions, and light sources corresponding to the manipulating portions, and wherein the light sources corresponding to the manipulating portions that are operable in accordance with opening-closing conditions of the slide door are configured to be turned on, so that images of the operable manipulating portions are illuminated.

Abstract: Disclosed is a sealed secondary battery provided with a current cut-off device which employs an inexpensive and uncomplicated construction, without the need to mount a separate current cut-off device on the battery body. A sealed secondary battery (10) comprises a battery casing (11) and a sealing plate (12), an electrode body (21) and current collecting plates (22, 22) provided on the inside of this casing (11). A contact section (11c) formed as part of the bottom (11a) of this battery casing (11) is bowed further inwards towards the negative electrode-side current collecting plate (22b) than the peripheral section of the bottom (11a) of this battery casing (11).

Abstract: A safety valve (40, 140, 240, 340) formed in a portion of a case of a sealed battery includes a fracture groove portion (50, 150, 250, 350) formed in a thin portion (42, 142, 242, 342). The thin portion (42, 142, 242, 342) is formed in a horizontally long shape or a vertically long shape that has a curved outer edge portion (45, 145, 245, 345) in which at least a portion of the outer edge portion (43) is curved. This thin portion (42, 142, 242, 342) has a center straight groove portion (60, 160, 260, 360) that extends in the longer direction of the thin portion in the center portion of the thin portion, and a pair of side groove portions (70, 170, 270, 370) that are formed in both side in the longer direction of the center straight groove portion (60, 160, 260, 360) and connected to longer direction end portions (60A, 60B, 160A, 160B, 260A, 260B) of the center straight groove portion.

Abstract: The sealed battery has a battery container (4, 5) and a power generating element sealed inside the battery container. The battery container is provided with a fill opening (12), an annular ridge (16), which extends around the entire circumference of the outer face surrounding the fill opening, and an annular indentation (15) on the inside of the inner wall surface of the annular ridge, and has a sealing cap (8), which fits into the annular indentation and covers the fill opening. The sealing cap is joined by being welded to the inner wall surface of the annular ridge around the entire circumference at the edge thereof. Since heat is not well transferred from the inside to the outside of the outer wall surface of the annular ridge, the effective thermal capacity during welding is mostly determined by the structure of the area inside the outer wall surface of the annular ridge. Consequently, the effective thermal capacity is nearly uniform independent of direction.

Abstract: A semiconductor module manufacturing method includes a step of bonding a semiconductor wafer, which has a plurality of semiconductor elements each of which has an element electrode formed thereon, on an expansible first insulating resin layer; a step of dicing the semiconductor wafer; a step of expanding the first insulating resin layer to widen a gap between semiconductor elements; a pressure-bonding step of pressure-bonding a metal plate whereupon an electrode is arranged and the semiconductor elements with the widened gaps in between, by having a second insulating resin layer in between, and electrically connecting the electrode and the element electrodes; a step of forming a wiring layer which corresponds to each semiconductor element by selectively removing the metal plate and forming a plurality of semiconductor modules connected by the first insulating resin layer and the second insulating resin layer; and a step of separating the semiconductor modules by cutting the first insulating resin layer and th

Abstract: The plasma display device has a display panel having first and second display electrodes and address electrodes, an electrode drive circuit, and a drive control circuit for controlling the electrode drive circuit. The drive control circuit performs a reset drive control, address drive control and sustain drive control in each subfield. The drive control circuit performs an all cell reset drive control which resets all cells in a first subfield out of the plurality of subfields, and an ON cell reset drive control which resets ON cells in a second subfield. At a first temperature T1, an ultimate potential of an slope pulse of the first display electrode is controlled to be a first potential in the ON cell reset drive control, and at a second temperature T2>T1, the ultimate potential is controlled to be a second potential higher than the first potential.

Abstract: A device mounting board includes: an insulating resin layer; a wiring layer provided on one main surface of the insulating resin layer; and a bump electrode, electrically connected to the wiring layer, which is protruded from the wiring layer toward the insulating resin layer. Asperities are formed on the side surface of the bump electrode and the surface roughness of the side surface of the bump electrode is greater than that of the top surface of the bump electrode.

Abstract: Sustain pulses are alternately applied to a pair of display electrodes of discharge cells provided in a plasma display panel (PDP) to generate a sustain discharge to display an image on the PDP. The sustain pulses include two-crests discharge voltage waveforms having a first maximum and second maximum values, in which discharges are generated twice in a half cycle. After applying a sustain pulse having a one-crest discharge voltage waveform to a pair of display electrodes, a predetermined number of sustain pulses of two-crests discharge voltage waveforms are consecutively applied. A time, from applying a second sustain pulse of a two-crests discharge voltage waveform to clamping a voltage of the second sustain pulse to the second maximum value, is made longer than a time, from applying a first sustain pulse of a two-crests discharge voltage waveform to clamping a voltage of the first sustain pulse to the second maximum value.

Abstract: A sealed battery is provided in which a case is partially provided with a safety valve that is provided with a thin portion, which is formed thinner than the peripheral portion of the safety valve. A portion of the safety valve surrounding the thin portion is provided with a slit for preventing heat conduction from the other portions of the case to the thin portion, said slit being formed so as to surround the thin portion.

Abstract: A safety valve (40, 140, 240, 340) formed in a portion of a case of a sealed battery includes a fracture groove portion (50, 150, 250, 350) formed in a thin portion (42, 142, 242, 342). The thin portion (42, 142, 242, 342) is formed in a horizontally long shape or a vertically long shape that has a curved outer edge portion (45, 145, 245, 345) in which at least a portion of the outer edge portion (43) is curved. This thin portion (42, 142, 242, 342) has a center straight groove portion (60, 160, 260, 360) that extends in the longer direction of the thin portion in the center portion of the thin portion, and a pair of side groove portions (70, 170, 270, 370) that are formed in both side in the longer direction of the center straight groove portion (60, 160, 260, 360) and connected to longer direction end portions (60A, 60B, 160A, 160B, 260A, 260B) of the center straight groove portion.

Abstract: Disclosed is a sealed secondary battery provided with a current cut-off device which employs an inexpensive and uncomplicated construction, without the need to mount a separate current cut-off device on the battery body. A sealed secondary battery (10) comprises a battery casing (11) and a sealing plate (12), an electrode body (21) and current collecting plates (22, 22) provided on the inside of this casing (11). A contact section (11c) formed as part of the bottom (11a) of this battery casing (11) is bowed further inwards towards the negative electrode-side current collecting plate (22b) than the peripheral section of the bottom (11a) of this battery casing (11).