Abstract: An optical member includes a first region and a second region constituting an interface with an adhesive member. The first region is disposed outside the second region in a second direction intersecting a first direction. An adhesive force generated at an interface between the first region and the adhesive member is smaller than an adhesive force generated at an interface between the second region and the adhesive member.

Abstract: A semiconductor apparatus includes a semiconductor substrate having an upper surface on which a semiconductor element is disposed, a lower surface opposite to the upper surface, and a side surface connecting the upper surface and the lower surface. The side surface has a plurality of concavities that each extend along the edge of the upper surface and that are arranged in a direction intersecting with the upper surface and the lower surface, and a plurality of ridges that are each located at the boundary between adjacent two of the plurality of concavities. The plurality of concavities and the plurality of ridges are covered with an insulating film containing carbon and fluorine.

Abstract: A semiconductor apparatus includes a semiconductor substrate having an upper surface on which a semiconductor element is disposed, a lower surface opposite to the upper surface, and a side surface connecting the upper surface and the lower surface. The side surface has a plurality of concavities that each extend along the edge of the upper surface and that are arranged in a direction intersecting with the upper surface and the lower surface, and a plurality of ridges that are each located at the boundary between adjacent two of the plurality of concavities. The plurality of concavities and the plurality of ridges are covered with an insulating film containing carbon and fluorine.

Abstract: An optical member includes a first region and a second region constituting an interface with an adhesive member. The first region is disposed outside the second region in a second direction intersecting a first direction. An adhesive force generated at an interface between the first region and the adhesive member is smaller than an adhesive force generated at an interface between the second region and the adhesive member.

Abstract: A memory readout system comprised of a vehicle control device and a readout device to be detachably connected to the vehicle control device. The readout device reads out dialogue information stored in a built-in nonvolatile memory in the vehicle control device when connected to the vehicle control device and a predetermined certification condition is satisfied. The vehicle control device is comprised of the built-in nonvolatile memory and a dialogue information readout unit. In particular, the nonvolatile memory has a un-rewritable area which allows a dialogue information writing, but inhibits a dialogue information deletion. The dialogue information readout unit reads out the dialogue information stored in the un-rewritable area when a password certification judges that the readout device is an authorized one, and then transfers the dialogue information to the readout device.

Abstract: A vehicle control system has a battery mounted to a vehicle, a vehicle alternator charging the battery, a battery current detection device detecting a charging/discharging current of the battery, a voltage regulation device regulating an output voltage of the vehicle alternator to a specified output voltage, and a temperature sensor mounted to the inside of the battery current detection device. One terminal of a shunt resistance is connected to a negative terminal of the battery through a battery clump, and the other terminal of the shunt resistance is grounded. The temperature sensor is placed close to the shunt resistance. This structure enables the temperature sensor to detect the temperature of the battery with a high accuracy while considering the temperature characteristics of the shunt resistance.

Abstract: In a charge control device installable in a motor vehicle and designed to execute charge control for a battery based on an output power of a power generator, a nonvolatile memory stores therein data required to execute the charge control for the battery. A communication circuit is communicably connectable to first and second devices different from each other. The first device allows entrance of information required to rewrite the data stored in the nonvolatile memory. A rewriting unit rewrites the data stored in the nonvolatile memory based on the entered information only when the first device is communicably connected to the communication circuit.

Abstract: A power supply management system includes means for detecting required electric power supply from electric loads installed in the motor vehicle, means for determining a distribution of amounts of the electric power to be distributed to the electric loads from an electric power resource in the motor vehicle based on the requirements of the supply of the electric power from the electric loads, and means for supplying one of amounts of the electric power to a corresponding one of the electric loads in accordance with the distribution of the amounts of the electric power.

Abstract: A vehicle control system has a battery, a vehicle alternator for charging the battery, a vehicle-alternator control device capable of controlling the vehicle alternator, and a battery current detection device. The battery current detection device has a battery current detecting means capable of detecting a charging/discharging current of the battery, a battery voltage detection means capable of detecting a voltage of the battery, a battery temperature detection means capable of detecting a temperature of the battery, a microcomputer, and a communication controller. The communication controller performs digital data communication to transfer digital control signals between the vehicle alternator and the battery current detection device.

Abstract: A vehicle control system has a battery, a vehicle alternator for charging the battery, a vehicle-alternator control device capable of controlling the vehicle alternator, and a battery current detection device. The battery current detection device has a battery current detecting means capable of detecting a charging/discharging current of the battery, a battery voltage detection means capable of detecting a voltage of the battery, a battery temperature detection means capable of detecting a temperature of the battery, a microcomputer, and a communication controller. The communication controller performs digital data communication to transfer digital control signals between the vehicle alternator and the battery current detection device.

Abstract: A vehicle control system has a battery mounted to a vehicle, a vehicle alternator charging the battery, a battery current detection device detecting a charging/discharging current of the battery, a voltage regulation device regulating an output voltage of the vehicle alternator to a specified output voltage, and a temperature sensor mounted to the inside of the battery current detection device. One terminal of a shunt resistance is connected to a negative terminal of the battery through a battery clump, and the other terminal of the shunt resistance is grounded. The temperature sensor is placed close to the shunt resistance. This structure enables the temperature sensor to detect the temperature of the battery with a high accuracy while considering the temperature characteristics of the shunt resistance.

Abstract: A power supply management system includes means for detecting required electric power supply from electric loads installed in the motor vehicle, means for determining a distribution of amounts of the electric power to be distributed to the electric loads from an electric power resource in the motor vehicle based on the requirements of the supply of the electric power from the electric loads, and means for supplying one of amounts of the electric power to a corresponding one of the electric loads in accordance with the distribution of the amounts of the electric power.

Abstract: A memory readout system comprised of a vehicle control device and a readout device to be detachably connected to the vehicle control device. The readout device reads out dialogue information stored in a built-in nonvolatile memory in the vehicle control device when connected to the vehicle control device and a predetermined certification condition is satisfied. The vehicle control device is comprised of the built-in nonvolatile memory and a dialogue information readout unit. In particular, the nonvolatile memory has a un-rewritable area which allows a dialogue information writing, but inhibits a dialogue information deletion. The dialogue information readout unit reads out the dialogue information stored in the un-rewritable area when a password certification judges that the readout device is an authorized one, and then transfers the dialogue information to the readout device.

Abstract: In a charge control device installable in a motor vehicle and designed to execute charge control for a battery based on an output power of a power generator, a nonvolatile memory stores therein data required to execute the charge control for the battery. A communication circuit is communicably connectable to first and second devices different from each other. The first device allows entrance of information required to rewrite the data stored in the nonvolatile memory. A rewriting unit rewrites the data stored in the nonvolatile memory based on the entered information only when the first device is communicably connected to the communication circuit.

Abstract: It is an object to provide an electric heated catalyst failure diagnostic device that is compact, lightweight, inexpensive, and can accurately detect a disconnection of the heater and an abnormality in a circuit from the power supply to the heater with a simple configuration. When an ECU orders to apply the current to a heater drive circuit, a heater failure diagnostic device applies the current to the heater and the heater drive circuit. If energizing via a diode, the heater failure diagnostic device determines the circuit is abnormal. If not so, the circuit is normal. Meanwhile, when the ECU orders not to apply the current to the heater drive circuit, the heater failure diagnostic device turns on electricity to the heater and the heater drive circuit. If energizing via the diode, the heater failure diagnostic device determines the heater is not disconnected, and if not so, the heater is disconnected.

Abstract: It is an object to provide an electric heated catalyst failure diagnostic device that is compact, lightweight, inexpensive, and can accurately detect a disconnection of the heater and an abnormality in a circuit from the power supply to the heater with a simple configuration. When an ECU orders to apply the current to a heater drive circuit, a heater failure diagnostic device applies the current to the heater and the heater drive circuit. If energizing via a diode, the heater failure diagnostic device determines the circuit is abnormal. If not so, the circuit is normal. Meanwhile, when the ECU orders not to apply the current to the heater drive circuit, the heater failure diagnostic device turns on electricity to the heater and the heater drive circuit. If energizing via the diode, the heater failure diagnostic device determines the heater is not disconnected, and if not so, the heater is disconnected.

Abstract: Disclosed is a battery power supply comprising battery modules each having a plurality of cells electrically and mechanically connected together in a line; a battery case for holding the battery modules; end plates, respectively provided at both end portions of the battery case, for electrically connecting positive and negative terminals provided at both ends of each of the battery modules, the positive and negative terminals having same or similar shapes, but different sizes; and terminal receiving portions which are provided at the end plates and in which the positive and negative terminals at the both ends of each of the battery modules are fitted. This structure can facilitate attaching of the battery modules to the battery case without misattachment of both terminals of each battery module, thus resulting in a reduced number of assembling steps.

Abstract: Disclosed is a battery power supply comprising battery modules each having a plurality of cells electrically and mechanically connected together in a line; a battery case for holding the battery modules; end plates, respectively provided at both end portions of the battery case, for electrically connecting positive and negative terminals provided at both ends of each of the battery modules, the positive and negative terminals having same or similar shapes; and terminal receiving portions which are provided at the end plates and in which the positive and negative terminals at the both ends of each of the battery modules are fitted. This structure can facilitate attaching of the battery modules to the battery case without misattachment of both terminals of each battery module, thus resulting in a reduced number of assembling steps.

Abstract: Disclosed is a battery charger for an electric vehicle, which prevents capacitors in a circuit section from being deteriorated even when the circuit section is not used over a long period of time and can therefore charge reliably a main battery supplying power to an engine. The battery charger comprises a circuit section having capacitors for rectifying and boosting an AC input voltage; a converter section for converting a DC input voltage to an AC output voltage, boosting the AC voltage to a predetermined voltage level, and applying the AC voltage of a predetermined voltage level to the capacitors of the circuit section; and a switch section placed between a high voltage battery and the circuit section for disconnecting the high voltage battery from the circuit section when the high voltage battery is not charged, and connecting the high voltage battery to the circuit section when the high voltage battery is charged.

Abstract: A diagnosis system has a main circuit for executing diagnosis by data communication with an electronic control unit installed in a vehicle using data read out of the control unit. The system has an interface circuit that converts input and output signal levels on the main circuit sent from and to the control unit into signal levels that match signal levels in the control unit. The interface circuit has a comparator and a transistor. A signal sent from the control unit and pulled up with a supply voltage supplied to the control unit is applied to the comparator at its inverting input terminal. A reference signal based on the supply voltage is also applied to the comparator at its non-inverting input terminal. An output signal of the comparator is applied to the main circuit. The transistor is supplied with the supplied voltage via a resistor at its collector. The transistor receives at its base an output signal of the main circuit. A signal appearing at the collector is applied to the control unit.