Abstract: In some examples, a control unit is configured to adjust charge termination voltage of a rechargeable energy storage device. The control unit is adapted to charge the rechargeable energy storage device to a charge termination voltage where the rechargeable energy storage device has capacity to support peak load but comes close to a system shutdown voltage after supporting peak load. The control unit is also adapted to increase the charge termination voltage if a voltage of the rechargeable energy storage device is near a system shutdown voltage after supporting peak load.

Abstract: Various embodiments may be generally directed to techniques for using an observed battery stress history to manage operation of a computing system component in a high power performance mode when powered by a battery. Various embodiments include techniques for tracking stresses to a battery. Various embodiments include techniques for comparing the battery stress history to a degradation baseline for the battery. Various embodiments include techniques for developing a degradation baseline for a battery including, for example, a degradation baseline based on expected stress to a battery and/or a degradation baseline based on a battery reliability model. Various embodiments include techniques for determining a battery stress surplus or deficit. Various embodiments include techniques for managing operation of a performance enhancing mode or high power performance mode of a computing system component based on the determined battery stress surplus or deficit.

Abstract: In one example, a battery includes a cathode, an anode, and a layer between the cathode and the anode. The cathode includes a solid-state electrolyte. The layer between the cathode and the anode is a solid-state electrolyte layer.

Abstract: Systems and methods are disclosed for estimating a full-charge battery cell capacity without a coulomb counting device. First and second measured voltages of the battery cell are measured during a charging or discharging period. The first and second measured voltages of the battery cell are converted to percentages of remaining battery life. The amount of charge delivered to the battery cell and/or delivered from the battery cell during charging/discharging is calculated. The change in the percentage of remaining battery life is compared to the amount of charge delivered to the battery cell and/or delivered from the battery cell to calculate various battery cell evaluation calculations, including a full-charge battery cell capacity.

Abstract: In some examples, an apparatus is to adjust charge termination voltage. The apparatus includes a controller to adjust a charge termination voltage of a charger of a rechargeable energy storage device based on a comparison of a first threshold level with the voltage of the rechargeable energy storage device during peak load. The charge termination voltage is a voltage at which the rechargeable energy storage device has capacity to support peak load of a system. The controller is to adjust the charge termination voltage based on a comparison of a second threshold level with an end voltage of the rechargeable energy storage device after peak load.

Abstract: In embodiments, an apparatus may include a battery life monitor. The battery life monitor may, in some embodiments, receive a battery level indicator indicative of a current charge level of a battery that is coupled with the apparatus and a first temperature that may indicate a temperature of a current location of the apparatus. The battery life monitor may also receive one or more additional temperatures that indicate respective temperatures of one or more locations in which the apparatus is likely to be operated prior to discharge of the current charge level of the battery. Based at least in part on the current charge level, the first temperature indicator, and the one or more additional temperatures, the battery life monitor may calculate one or more battery life estimates that correspond with the one or more locations. Other embodiments may be described and/or claimed.

Abstract: A battery cell structure, a system including the structure, and a method of fabricating the structure. The structure includes: a cell housing; a cathode in the cell housing, the cathode including a cathode material; a cathode current collector adjacent the cathode in the cell housing; an anode in the cell housing, the anode including an anode material; an anode current collector adjacent the anode in the cell housing; a separator in the cell housing between the cathode and the anode. The cathode material comprises a recycled material including a contaminant, and the battery cell structure further includes a solid-state electrolyte disposed in the cell housing to at least partially prevent the contaminant from growing.

Abstract: Systems and methods may place a battery in a first constant voltage charging mode and monitoring a diminishing current of the battery while the battery is in the first constant voltage charging mode. Additionally, the battery may be placed in a constant current charging mode when the diminishing current falls to a first predetermined threshold. In one example, a rising voltage of the battery is monitored while the battery is in the constant current charging mode and the battery is placed in a second constant voltage charging mode at an end of the charge cycle in response to the rising voltage reaching a second predetermined threshold. Moreover, a charge current corresponding to the constant current charging mode may be adjusted based on a charge capacity of the battery.

Abstract: Apparatuses, methods and storage media associated with autonomously or semi-autonomously parking a vehicle are disclosed herein. In embodiments, an apparatus may include a communication interface to receive sensor data associated with environmental condition of an area around or adjacent to a vehicle; and a parking condition analysis unit coupled to the communication interface to determine, while the vehicle is parked in a current parking position, whether there is a new parking position for the vehicle, that provides a new parking condition that is an improvement over a current parking condition of the current parking position of the vehicle, based at least in part on the received sensor data. Other embodiments may be disclosed and claimed.

Abstract: An embodiment of a semiconductor package apparatus may include technology to determine history information for a battery, predict a peak power capacity of the battery based on the history information, and set a peak power parameter based on the predicted peak power capacity.

Abstract: An image display device includes: a display unit that displays an image; a right side support and a left side support that support the display unit in an upright state, and are at least partially light-transmissive; a right side first light source and a left side first light source that are disposed in the display unit, and emit light to at least a part of the right side support and the left side support.

Abstract: A cooling device includes: a fan motor including a rotation shaft, an impeller supported by the rotation shaft, and a sleeve bearing unit pivotally supporting the rotation shaft; and a heat sink including heat radiation pins extending from a base portion. The fan motor is placed on the heat sink. The impeller includes a blade support element supported by the rotation shaft and a fan blade extending from the blade support element in an outer peripheral direction of the rotation shaft. The heat radiation pins extend from the base portion toward the sleeve bearing unit in a direction along the rotation shaft. The impeller is spaced apart from the heat radiation pins between the sleeve bearing unit and the heat radiation pins. The blade support element and at least one of the heat radiation pins overlap with each other as viewed in a direction of the rotation shaft.

Abstract: An apparatus is provided which comprises: a first circuitry to estimate variation of an internal impedance of a battery; a second circuitry to estimate a high power that the battery can supply for a first time-period, based on the estimated variation of the impedance of the battery; and a third circuitry to facilitate operation of one or more components of the apparatus in accordance with the estimated high power for the first time-period.

Abstract: A battery cell is formed to efficiently use unoccupied space in an electronic device. The battery cell may be formed by disposing an electrically insulating material on at least a first surface of a circuit board having components to create an electrical barrier and disposing a battery cell on the electrically insulating material. In some embodiments, a portion of the battery cell is configured to be partially disposed between components of the circuit board components, thus utilizing previously unoccupied space in the electronic device to store energy.

Abstract: A battery cell structure, a system including the structure, and a method of fabricating the structure. The structure includes: a cell housing; a cathode in the cell housing, the cathode including a cathode material; a cathode current collector adjacent the cathode in the cell housing; an anode in the cell housing, the anode including an anode material; an anode current collector adjacent the anode in the cell housing; a separator in the cell housing between the cathode and the anode. The cathode material comprises a recycled material including a contaminant, and the battery cell structure further includes a solid-state electrolyte disposed in the cell housing to at least partially prevent the contaminant from growing.

Abstract: Various embodiments of the invention may pertain to determining the level of charge needed in a rechargeable battery for a battery-powered object, to assure the battery will have sufficient charge to complete an anticipated task, but not so much charge as to shorten the life of the battery unnecessarily. Various anticipated demands on the battery may be considered in determining the level of charge. Various sources of information may be used to determine these anticipated demands. The demands and sources may be manually input and/or automatically retrieved.

Abstract: A system for increasing the life of a battery cell by limiting the charging of the battery to less than full charge in response to a predicted electricity draw of a connected device being less than the full capacity of the battery before a predicted recharge will occur. The current draw of the connected device may be affected by the amount of time before a next recharge and environmental factors. The system may further comprise one or more sensors to gather data pertaining to environmental conditions that may be used in the calculation of a charge termination value. The charge termination value is an amount of charge to power the device for a duration of time at least until a predicted recharge begins.

Abstract: An optical apparatus includes a housing including an opening for letting a light flux pass through a first window member configured to let the light flux pass through, and to cover the opening, a second window member, overlapped with and fixed to the first window member, configured to let the light flux pass through, and a sealing member that is made of a stretchable material, and that is provided along an outer edge of the first window member or the second window member so as to form a sealed space portion between the first window member and the second window member.

Abstract: An apparatus is provided which comprises: a surface; a first photovoltaic layer formed on a first section of the surface; and a second photovoltaic layer formed on a second section of the surface, wherein a transparency of the first photovoltaic layer is different from a transparency of the second photovoltaic layer.

Abstract: In one example, a battery includes a cathode, an anode, and a layer between the cathode and the anode. The cathode includes a solid-state electrolyte. The layer between the cathode and the anode is a solid-state electrolyte layer.