A system and method is disclosed for detecting remaining battery voltage or capacity in an infusion device and generating alarms based on the detection. The battery lifetime extension method includes providing an infusion device that derives its power from a rechargeable battery. The infusion device may derive its power from a rechargeable battery. Furthermore, the infusion device receives, at predetermined intervals of time in real-time sensor data comprising: a voltage, a change in the voltage over the predetermined interval of time, an average current, a temperature, and a remaining voltage or capacity reported by a battery gas gauge integrated circuit (“IC”) associated with the rechargeable battery. An improved and customized neural network model utilizes the sensor data to determine an indicia of the actual remaining voltage or capacity of the rechargeable battery in real-time. The indicia may be used to lengthen and/or abate ongoing medical infusion therapy.

For indicating that a battery is fully discharged to a decommissioned state, methods, apparatus, and systems are disclosed. One apparatus includes a battery that powers an electronic device, a battery state module that comprises a non-reversible indicator, a control module coupled to the battery, and a decommission module. The decommission module receives a discharge signal from the control module and discharges the battery to a fully discharged state, where discharging the battery causes the non-reversible indicator to indicate the fully discharged state.

A vehicle includes a secondary battery and a display device. The secondary battery is mounted on the vehicle as a power source. The display device is configured to display an indicator that indicates a capacity retention rate of the secondary battery at a current point in time. The capacity retention rate is a ratio of a capacity of the secondary battery at the current point in time to a reference capacity of the secondary battery. The reference capacity is set in advance based on a virtual capacity of the secondary battery after a lapse of a predetermined period from manufacture of the vehicle.

The invention discloses a lithium-ion battery with cap charging indication function, including PET sleeve, battery cell, support frame, steel sleeve, PCB board, ring nickel sheet, PET gasket and LED indicator, the inside of the PET sleeve is fixedly installed with cell, the top of cell is fixed with a support frame, the upper of the support frame is fixed with a PCB board, the middle of the upper part of the PCB board is fixed with an LED indicator, and the outside of the upper part of the PCB is fixed with a ring nickel sheet, the outer fixing sleeve of the support frame and the PCB board are installed with a steel sleeve, and the top of the steel sleeve is fixed with an insulating gasket. The invention of new type of PET sleeve is equipped with a cell, and the top of the cell is fixedly installed on the PCB board and the positive contact sheet through the support frame and the steel sleeve. The integrated welding of the board and the steel sleeve makes the cell connection structure simple, easy to assemble, and effectively improves the processing efficiency, and the top of the PCB board is equipped with an LED indicator to indicate the charging status, which is more convenient during charging and discharging.

A dummy load for automotive LED lights is revealed. The dummy load includes an automotive battery and a control module which is electrically connected both a body computer and a LED light module and provided with a LED control circuit and a charge control circuit. The charge control circuit includes a signal mixer circuit receiving signals from the body computer and discharge signals of the automotive battery, a charger integrated circuit (IC) and a feedback control circuit for battery both electrically connected to the signal mixer circuit, and a battery charging circuit electrically connected to the charger IC and transmitting charge signals to the feedback control circuit for battery and the automotive battery. Thereby a conventional dummy load resistor is replaced by the automotive battery for protecting the automotive LED light from overheating, increasing product stability and recycling a part of electricity for recharge of the automotive battery.

A battery management system (BMS) for early detection of a battery cell internal short-circuit is disclosed. The BMS comprises a memory, one or more processing units, and a machine-readable medium on the memory. The machine-readable medium stores instructions that, when executed by the one or more processing units, cause the BMS to perform numerous operations of a method for early detection of the battery cell internal short-circuit.

A power device capable of displaying various statuses and a displaying method are provided. The power device includes: a central microprocessor, a power conversion circuit, an LED bar (or a light bar) circuit, and a battery pack. The central microprocessor intrinsically has color setting and control logic and is internally provided with a color setting and control logic circuit. The power device is externally connected to a utility power source, a solar photovoltaic power source, a backup battery pack, and a load. The color setting and control logic circuit enables the LED bar circuit to correspondingly emit LED light of at least two colors according to different power sources supplied to the load or a battery capacity, and the LED light is displayed in a breathing-like manner. The central microprocessor adjusts a breathing rate of the LED light according to a power consumption of the load.

A portable power source. The portable power source includes a housing, a first battery pack support configured to receive a first removable and rechargeable battery pack, a second battery pack support configured to receive a second removable and rechargeable battery pack, an inverter within the housing, and an alternating current power outlet. The inverter is configured to receive output power from the first removable and rechargeable battery pack and the second removable and rechargeable battery pack. The inverter is configured to produce an alternating current power output. The alternating current power outlet is configured to receive the alternating current power output from the inverter. The inverter is configured to be disabled when the first removable and rechargeable battery pack is received in the first battery pack support and the second removable and rechargeable battery pack is not received in the second battery pack support.

A electric personal mobility device may include a main body including a rider-support-platform structure and a steering column coupled to the rider-support-platform structure. The electric personal mobility device may further include a wheel arrangement, having at least one front wheel and at least one rear wheel, supporting the main body. The at least one front wheel may be steerable by the steering column. According to various embodiments, the rider-support-platform structure may include an elongate hollow housing structure enclosing an internal space partitioned to define a first and second longitudinal-internal-battery-compartments. Each longitudinal-internal-battery-compartment may be extending lengthwise along respective longitudinal side of the elongate hollow housing and having a respective rear opening at an aft portion of the elongate hollow housing structure. The rider-support-platform structure may include a rear-wheel-fork fixedly extending longitudinally from the aft portion between the rear openings. The rear-wheel-fork may be holding the at least one rear wheel.

A medicine removal detection system is provided that includes a medication device and a storage member in a sheet shape storing the medication device. The medication device includes medicine, a secondary battery, and a signal transmission unit that transmits a signal indicating a state of the secondary battery. The storage member includes the electric current supply line for supplying an electric current to the secondary battery of the medication device, and is configured such that a supply environment of an electric current to the secondary battery changes when the medication device is taken out. The signal transmission unit transmits a signal indicating a state change of the secondary battery based on a change in the supply environment of an electric current to the secondary battery of the storage member.