Abstract: A system comprises sets of batteries, each set having a power capacity less than a standup power capacity. The system is configured to couple the sets of batteries to power supplies to configure each of the power supplies with battery power less than the standup capacity. Responsive to a disruption of a first power supply, the system couples a first set of batteries, coupled to the first power supply, to a second power supply to couple to the second power supply battery power to not less than the standup power capacity. A method comprises coupling sets of batteries to power supplies to configure each of the power supplies to have less than a standup capacity. The method includes coupling sets batteries of one power supply to a second power supply to provide the second power supply with a battery capacity not less than the standup capacity.

Abstract: Aspects of the invention include systems and methods directed to a portable chip tester. A non-limiting example of a system includes a housing, a printed circuit board mounted on the housing, in which the printed circuit board includes a first interface operable to permit electrical communication between the printed circuit board and a device under test. The system further includes a mount operable to enable an electrical connection with an integrated circuit, in which the integrated circuit is operable to manage testing the device under test under a testing protocol. The system further includes a power supply and a software platform that includes a memory having computer readable instructions and one or more processors for executing the computer readable instructions. The computer readable instructions controlling the processors to perform operations including directing the integrated circuit to manage testing of the device under test pursuant to the testing protocol.

Abstract: A non-sealed apparatus for batteries with a containment structure for gasses that includes a battery enclosure with an upper portion and a lower portion. The apparatus further includes a plurality of batteries disposed in a lower portion of the battery enclosure. The apparatus has at least one battery containment structure disposed in an upper portion of the battery enclosure, which is configured to move downward thereby sealing the plurality of batteries upon a condition. Further, a transfer channel assembly is provided within the battery enclosure and configured to transfer and/or contain gases emitted by the plurality of batteries upon the condition. The apparatus also has at least one fan configured to circulate the air in and out of the battery enclosure through the first perforated opening and the second perforated opening.

Abstract: A non-sealed apparatus for batteries with a containment structure for gasses that includes a battery enclosure with an upper portion and a lower portion. The apparatus further includes a plurality of batteries disposed in a lower portion of the battery enclosure. The apparatus has at least one battery containment structure disposed in an upper portion of the battery enclosure, which is configured to move downward thereby sealing the plurality of batteries upon a condition. Further, a transfer channel assembly is provided within the battery enclosure and configured to transfer and/or contain gases emitted by the plurality of batteries upon the condition. The apparatus also has at least one fan configured to circulate the air in and out of the battery enclosure through the first perforated opening and the second perforated opening.

Abstract: An adjustable attenuation wrap plug for insertion into a signal port at an end product includes a housing with a protruding input prong and output prong, wherein a signal cable is coupled to the input prong and the output prong. The adjustable attenuation wrap plug further includes a ratchet mechanism at least partially disposed in the housing, wherein the ratchet mechanism is configurable to alter a shape of the signal cable.

Abstract: An apparatus for an attenuation adjustment tool, the attenuation adjustment tool includes a body with an adjustment arm positioned at a first side of the body, where an actuator is configured to extend and retract the adjustment arm. The attenuation adjustment tool further includes an input port and an output port positioned at the first side of the body, wherein an input prong and an output prong of a wrap plug are each respectively insertable into the input port and the output port. The attenuation adjustment tool further includes the adjustment arm configurable to engage with a mechanism on the wrap plug, wherein the mechanism is configurable to alter a shape of a signal cable in the wrap plug.

Abstract: Computer-implemented managing of battery capacity within a battery system is provided. The managing includes obtaining, by one or more processors, data representative of a number (N) of battery packs in the battery system, and ascertaining, by the processor(s), a battery pack self-discharge time interval (TD) from full-charge to a partially discharged threshold for initiating top-off charging. The managing also includes determining, by the processor(s), a charge-staggering time interval (TS) using the number (N) of battery packs in the battery system and the ascertained battery pack self-discharge time interval (TD), and staggering, by the processor(s), top-off charging of the battery packs of the N battery packs in the battery system using, at least in part, the charge-staggering time interval (TS).

Abstract: A method for increasing temperature of a battery pack includes determining whether a temperature of a cell in the battery pack is above a lower threshold temperature. The method further includes charging, by a current directly from a charger, a balancing circuit including a resistor in proximity to the cell. The method also includes increasing the temperature of the cell in the battery pack.

Abstract: A battery comprises a plurality of battery modules. A method determines a load-state of the battery and selects a set of the battery modules to configure, to produce a load-state capacity of the battery based on the load-state. A load-state capacity of the battery can be a sub-capacity of the battery less than a rated capacity of the battery and the method can configure the set of battery modules to produce the sub-capacity based on the load-state comprising the battery disconnected from a load. A battery system can comprise a battery having a plurality of battery modules and a controller configured to perform the method. A battery system can comprise a battery having a plurality of battery modules, and an actuator and a module retainer that can position a battery module in or out of contact with a module interconnect.

Abstract: Computer-implemented managing of battery capacity within a battery system is provided. The managing includes obtaining, by one or more processors, data representative of a number (N) of battery packs in the battery system, and ascertaining, by the processor(s), a battery pack self-discharge time interval (TD) from full-charge to a partially discharged threshold for initiating top-off charging. The managing also includes determining, by the processor(s), a charge-staggering time interval (TS) using the number (N) of battery packs in the battery system and the ascertained battery pack self-discharge time interval (TD), and staggering, by the processor(s), top-off charging of the battery packs of the N battery packs in the battery system using, at least in part, the charge-staggering time interval (TS).

Abstract: A battery structure is provided. The battery structure includes a casing, a jelly roll assembly, electrodes, insulation and a thermal control feature. The casing includes an internal tube defining a central hole. The jelly roll assembly is disposed with an electrolyte in an annular space about the internal tube within the casing. The electrodes are electrically coupled to the jelly roll assembly and disposed to extend out of the casing. The insulation is disposed to insulate the jelly roll assembly and the electrodes from the casing. The thermal control feature is communicative with the central hole and configured to control battery structure temperatures proximate to the central hole.

Abstract: A power system comprises a battery connected to a first power supply. The power system determines that the power supply has transitioned to a first state and, in response, disconnects the battery from the first power supply and connects the battery to a second power supply. The power system determines that the first power supply has transitioned to a second state and, in response, the power system disconnects the battery from the second power supply and reconnects the battery to the first power supply. The power system can include a second battery and can connect and disconnect the second battery and the power supplies in response to a change in state of the power supplies. A method can dynamically connect and disconnect batteries and power supplies of a power system based on states of the power supplies.

Abstract: Provided are embodiments for performing a cognitive state of charge recalibration, where the embodiments include determining a device usage schedule for a device, and determining a threshold time for performing a recalibration function of a battery of the device. In addition, the embodiments include identifying an available period in the device usage schedule based on the threshold time to perform the recalibration function, and updating device calibration setting based on results of the recalibration function.

Abstract: An apparatus for cooling and containing packaged battery cells includes a first structure disposed on a printed circuit board for encasing a first battery cell, the first battery cell being electrically coupled to the circuit board, the first structure includes an external surface and an internal surface defining a first cavity in which the first battery cell is located. The apparatus further includes a first seal surrounding the first battery cell between the printed circuit board coupled to the first structure. The apparatus further includes a first thermal interface material located in the first cavity, wherein a first portion of the first thermal interface material is thermally coupled to an interior surface and a second portion of the first thermal interface material is thermally coupled to the first battery cell. The apparatus further includes a plurality of heatsink fins located on the external surface of the first structure.

Abstract: A battery pack configured for discharging to a desired state of charge (SoC) after a fault event that includes a plurality of battery cells and a balancing circuit connected to each of the battery cells. The balancing circuit is configured to measure operational values of each of the battery cells. The battery pack further includes a microcontroller configured to receive the operational values from the balancing circuit, compare the operational values to a prescribed threshold values and issue commands to selectively discharge one or more of the battery cells across the balancing circuit.

Abstract: Predictive rechargeable battery management is provided, which includes obtaining performance data on a battery cell of multiple rechargeable battery cells within a product, and comparing the performance data of the battery cell to statistical data on battery cell performance of a plurality of battery cells. Further, the managing includes determining, based on the comparing, that performance of the battery cell is trending away from the statistical data of battery cell performance of the plurality of battery cells. Further, the managing includes performing a battery-related action based on the performance of the battery cell trending away from that of the plurality of battery cells.

Abstract: Systems for varying orifice cross-section for 3D printing are provided. Aspects of the invention include an actuator operable to control an actuator rod, a plurality of nozzles connected to the actuator rod, the plurality of nozzles comprising a first nozzle and a second nozzle, wherein the first nozzle comprises a first cross-section, wherein the second nozzle comprises a second cross-section, and a controller configured to operate the actuator rod to maneuver the first nozzle under a printer head, wherein the printer head extrudes a filament that passes through the first cross-section of the first nozzle.

Abstract: Aspects of the invention include systems and methods directed to a portable chip tester. A non-limiting example of a system includes a housing, a printed circuit board mounted on the housing, in which the printed circuit board includes a first interface operable to permit electrical communication between the printed circuit board and a device under test. The system further includes a mount operable to enable an electrical connection with an integrated circuit, in which the integrated circuit is operable to manage testing the device under test under a testing protocol. The system further includes a power supply and a software platform that includes a memory having computer readable instructions and one or more processors for executing the computer readable instructions. The computer readable instructions controlling the processors to perform operations including directing the integrated circuit to manage testing of the device under test pursuant to the testing protocol.

Abstract: Predictive rechargeable battery management is provided, which includes obtaining performance data on a battery cell of multiple rechargeable battery cells within a product, and comparing the performance data of the battery cell to statistical data on battery cell performance of a plurality of battery cells of similar type to the battery cell, and in corresponding condition(s) to the battery cell. Further, the managing includes determining, based on the comparing, that performance of the battery cell is trending away from the statistical data of battery cell performance of the plurality of battery cells. Further, the managing includes performing a battery-related action based on the performance of the battery cell trending away from that of the plurality of battery cells of similar type and in corresponding condition(s) to the battery cell.

Abstract: A method of using an adjustable attenuation fiber optic wrap plug (“AAFOWP”) includes receiving initial data into a wireless module of the AAFOWP, wherein the initial data corresponds to an initial desired attenuation level that the first AAFOWP is to achieve. The method also includes moving, in response to receiving the initial data, an arm by an actuator to change a bend radius of an optical fiber wrap in the AAFOWP, thus adjusting an attenuation through the AAFOWP to the initial desired attenuation level.