Abstract: A semiconductor device includes a base, a detector on the base and including a first surface on which a detection portion is provided, and a resin package on the base and including an exposure hole to externally expose the detection portion of the detector. At least a portion of an outer peripheral edge of the first surface of the detector is exposed in the exposure hole. The resin package includes a depressed portion along the portion of the outer peripheral edge that is exposed in the exposure hole.

Abstract: A battery system includes a battery unit, a heater unit, and a sensor unit. The battery unit is accommodated in a battery case and includes sulfide-based all-solid-state batteries. The heater unit is configured to heat the battery unit. The sensor unit is configured to measure a hydrogen sulfide gas concentration inside the battery case. The heater unit is started to be driven when a measured value of the sensor unit becomes greater than the first threshold value. After starting the driving of the heater unit, when the measured value becomes greater than the second threshold value that is higher than the first threshold value, a responsive control is executed to deal with generation of the hydrogen sulfide gas from the sulfide-based all-solid-state batteries.

Abstract: A battery system includes a battery and an ECU. The ECU executes polarization cancellation control for canceling polarization of the battery and calculation processing for calculating SOC of the battery after the polarization cancellation control. When the polarization cancellation control is executed after the battery is discharged, the polarization cancellation control is charging control for charging the battery. When the polarization cancellation control is executed after the battery is charged, the polarization cancellation control is discharging control for discharging the battery.

Abstract: An ultrasound diagnostic system is an ultrasound diagnostic system that performs diagnosis by moving an ultrasound probe by a robot. The system includes an arm section configured to hold the ultrasound probe, a motor section configured to move the arm section, an amplifier section configured to supply power to the motor section, a robot control section configured to output a control signal to the amplifier section, and a monitoring section configured to monitor states of respective sections constituting a system and shift to a predetermined safety state when an abnormality occurs in any of the respective sections.

Abstract: A regeneration method of an all-solid-state battery includes a step of preparing an all-solid-state battery having a cathode that does not contain copper, and a step of executing overdischarge control of the all-solid-state battery. The overdischarge control is control of mitigating reaction variance that is variance in electrode reaction due to charging and discharging of the all-solid-state battery, by discharging the all-solid-state battery until a potential of the cathode becomes lower than an elution potential of copper.

Abstract: The ECU performs a step of determining whether charging/discharging control is being executed, a step of acquiring the temperature of the terminal portion when it is determined that charging/discharging control is being executed, and a step of determining the charging power limit value, a step of setting a discharge power limit value, and a step of performing charge/discharge control using the set charge power limit value and the set discharge power limit value.

Abstract: A tubular body (111) has a shape of tube surrounding a virtual center line (VL). A guide groove (112) that is helical about the virtual center line (VL) is provided in the inner surface of the tubular body (111). A rotation device (120) rotates the tubular body (111) around the virtual center line (VL). A dropping device (130) drops, on the inner surface of the tubular body (111), an inclusion substance and a wall material precursor liquid that is a precursor of a wall material covering the inclusion substance. A liquid droplet dropped by the dropping device (130) rolls in the guide groove (112) of the tubular body (111), the tubular body (111) being rotated by the rotation device (120).

Abstract: A battery system includes at least one pack in which an all-solid-state battery cell is sealed, and a sensing unit configured to sense deformation of the at least one pack due to change in internal pressure of the at least one pack.

Abstract: An all-solid-state battery system includes an assembled battery configured by connecting a plurality of cells, and a control device that performs charge control and discharge control of the assembled battery. Each of the plurality of cells is an all-solid-state battery. The control device is configured to perform an equalization process of evenly approximating the amount of stored electricity between the cells in the plateau region in the relationship between the voltage and the amount of stored electricity of the assembled battery in the charge control or the discharge control of the assembled battery.

Abstract: The control device executes a process including a step of acquiring a detected value from each surface pressure sensor when charging is in progress, a step of specifying a corresponding partial pressurizing unit when it is determined that there is a reaction uneven portion, a step of outputting a pressurization command, a step of determining whether or not pressurization is completed, and a step of outputting a pressurization release command when it is determined that pressurization is completed.

Abstract: The control device executes a process including a step of acquiring a detection value from each surface pressure sensor when charging is in progress, a step of specifying a corresponding partially pressing unit when it is determined that there is a portion where the reaction is uneven, a step of outputting a pressing command, a step of determining whether or not pressing is completed, and a step of outputting a pressing cancel command when it is determined that pressing is completed.

Abstract: A battery system includes a control device. The control device is configured to perform a first control and a second control. The first control includes placing an all-solid-state battery in an over-discharge state. The second control includes pressurizing the all-solid-state battery in the over-discharge state. The all-solid-state battery includes an anode layer, a solid electrolyte layer, and a cathode layer, in this order. The cathode layer includes silicon grains. The silicon grains include a clathrate II crystalline phase.

Abstract: The all-solid-state battery system includes an all-solid-state battery and an ECU (control device) that performs charge control and discharge control of the all-solid-state battery. If an internal short circuit is detected during charging control of the all-solid-state battery, the ECU switches charging control to discharging control and discharges the all-solid-state battery.

Abstract: The electrified vehicle includes an all-solid-state battery in which a positive electrode layer, a solid electrolyte layer, and a negative electrode layer are stacked in the front-rear direction (predetermined direction) of the electrified vehicle. The electrified vehicle also includes an acceleration sensor that detects a first acceleration in a direction perpendicular to the longitudinal direction and a second acceleration in the longitudinal direction. In an electrified vehicle, charging and discharging of the all-solid-state battery is prohibited when the first acceleration exceeds the first reference value, and the all-solid-state battery is prohibited until the second acceleration exceeds a second reference value that is larger than the first reference value, charging/discharging is allowed.

Abstract: The fine hollow particle of the present invention is a fine hollow particle composed of a resin film comprising a melamine-based resin, in which the resin film is composed of a plurality of small piece-shaped portions and a bonding portion for bonding the plurality of small piece-shaped portions. According to the present invention, it is possible to provide stable fine hollow particles having excellent solvent resistance and heat resistance, good dispersibility, and a large particle diameter.

Abstract: A vehicle on which an all-solid-state battery is mounted includes the all-solid-state battery, and a case that accommodates the all-solid-state battery. The vehicle is configured such that, when gas is generated in the case, a blocking process is executed to separate a vehicle cabin from outside air.

Abstract: What is provided is stannous oxide having an ?-ray emission amount of 0.002 cph/cm2 or less after heating in an atmosphere at 100° C. for 6 hours. Tin containing lead as an impurity is dissolved in a sulfuric acid aqueous solution to prepare a tin sulfate aqueous solution, and lead sulfate is precipitated in the aqueous solution and removed. While stirring the tin sulfate aqueous solution from which lead sulfate has been removed, a lead nitrate aqueous solution containing lead having an ?-ray emission amount of 10 cph/cm2 or less is added to cause lead sulfate to be precipitated in the tin sulfate aqueous solution, and simultaneously the tin sulfate aqueous solution is circulated while removing the lead sulfate from the aqueous solution. A neutralizing agent is added to the tin sulfate aqueous solution to collect stannous oxide.

Abstract: A transient voltage protection device comprises a pair of discharge electrodes opposing each other with a gap therebetween and a discharge inducing portion in contact with the pair of discharge electrodes. The discharge inducing portion comprises a ceramic component, metal particles, and pores discontinuously scattered. The pores have an average size of 0.05 ?m or more and 1.04 ?m or less.

Abstract: A battery system includes: a battery case; a battery housed in the battery case, the battery being composed of a sulfide-based all-solid-state battery; a first detection unit located on a bottom surface of the battery case inside the battery case and configured to detect hydrogen sulfide; a second detection unit located vertically above the bottom surface inside the battery case and configured to detect hydrogen sulfide; and a control device. The control device includes an abnormality processing unit configured to perform an abnormality process based on detection results from the first detection unit and the second detection unit. The abnormality processing unit is configured to perform a first abnormality process when hydrogen sulfide is detected only by the first detection unit, and to perform a second abnormality process when hydrogen sulfide is detected by the second detection unit.

Abstract: A battery system includes a unit cell including a sulfide-based all-solid-state battery, a battery module in which a plurality of the unit cells is stacked between a pair of restraining members, an intermediate plate disposed between the stacked unit cells, a detection unit configured to detect a load applied to the intermediate plate, and an estimation unit configured to estimate generation of hydrogen sulfide in the unit cell, based on a change in load applied to the intermediate plate.