31results about "Multimodal batteries" patented technology

A battery powered portable electric light source has multiple sets of spare batteries contained in its battery compartment, whereby mixups between exhausted and fresh batteries are effectively avoided. A flashlight having a light output stronger than the mentioned electric light source is provided for use of batteries from the battery compartment of the mentioned portable container, and batteries are exchanged between that portable container and that flashlight. Apparatus for providing electric light have an electric light source requiring for energization a pair of batteries in series and a portable container for several pairs of these batteries connected each in series at a bottom of that container. Each of these several pairs of batteries includes a first battery having a first positive terminal and an opposite first negative terminal, and a second battery having a second positive terminal connected to that first negative terminal and an opposite second negative terminal. First positive terminals of first batteries of the several pairs of batteries and second negative terminals of second batteries of the several pairs of batteries are in substantially the same plane for selective application of the electric light source thereto for energization therefrom. A socket for the electric light source includes terminals corresponding to adjacent terminals of any one of the several pairs of batteries in that container. Unspent batteries in film packs may be used to energize light sources.

A battery, suitable for forming a battery pack, includes an electrode assembly having a positive electrode plate and a negative electrode plate, and a separator wound or laminated together, core materials of the negative and positive electrode plates being bared respectively at either end. A bottomed cylindrical outer case having a bottom is connected to either end face of the electrode assembly to serve as a battery terminal. Electrolyte is impregnated in the electrode assembly and a lid is connected to the other end face of the electrode assembly and fixedly attached to the outer case with a sealer and an insulator interposed therebetween. A connecting part is a part of the lid so that the connecting part engages with and connects to a bottom part of the outer case of another battery.

A multi-voltage power supply system, such as a 14V / 42V dual-voltage system for vehicular applications, includes a battery arrangement and an intelligent switching regulator for providing at least a first output at a first potential and a second output at a second potential higher than the first potential. The battery arrangement includes a plurality of segments each providing an output substantially equal to the first potential. The switching regulator selectively conFIG. s each of the segments as a first part having a potential difference determined with respect to the first potential and a reference potential, e.g., ground, such that the power supply system provides the first and second outputs while minimizing degradation of the segments.

A revolving battery reservoir system is disclosed. The revolving battery reservoir system includes a system housing for containing multiple sets of batteries. A housing cap is rotatably mounted on the system housing. A contact rod is provided on the housing cap for contacting a selected one of the multiple sets of batteries responsive to rotation of the housing cap on the system housing. Multiple battery extension springs are provided in the system housing for engaging the multiple sets of batteries, respectively. An electrical device is provided in electrical contact with the multiple battery extension springs and the contact rod.

The battery pack used for the battery powered electrical device of the present invention comprises a case for accommodating at least two battery modules, a switching means provided on a side of the case, and an output terminal formed on the case. The switching means selectively closes and opens a series electrical connection of the at least two battery modules. The switching means cooperates with an actuator, which is provided on a side of a device's main body holding the battery pack detachably, to establish the series electrical connection when the case is attached to the device's main body, and to interrupt the series electrical connection when the case is detached from the device's main body.

Field expandable battery pack systems and related methods are disclosed that allow for increased battery life while reducing cost and still meeting shipping regulations. In part, the expanded battery system includes a primary battery having a battery management unit (BMU) and additional expansion batteries that couple to the primary battery and are managed together by the shared-BMU within the primary battery. Each battery has its own protection circuitry, and the batteries can be lithium-ion batteries. As such, multiple batteries can be shipped together and then combined by a user to achieve a desired level of battery capacity that is managed as a single battery through the use of the shared-BMU.

A method of manufacturing thermal batteries is disclosed. In the method according to the present invention, pellets used in the manufacture of thermal batteries are grouped together based on certain material characteristics such as weight, thickness, and density. Pellets with different material characteristics can be grouped together in a single thermal battery to produce a thermal battery with characteristics that are the average of the characteristics of the pellets used to manufacture the thermal battery.

The invention provides a thermal battery pack with single batteries activated sequentially and outputted parallelly. The thermal battery pack comprises a plurality of single thermal batteries, a structural shell and a sequential activation control circuit, wherein the single thermal batteries in all grades are sequentially activated under control of the sequential activation control circuit and are outputted parallelly. The number of the single thermal batteries depends on service hours of both a power system and the single thermal batteries. Output terminals of the single thermal batteries are in parallel connection through rectifier diodes, and activation terminals are connected to activation signal output ends corresponding to the control circuit. After being activated by external activation signals, the first-stage single thermal batteries control power-on operation of the circuit and start external output of the power system while judge output voltage or start a delay time sequence, and activation signals of second-stage single thermal batteries are outputted if power voltage is lower than a threshold value or delay time is up. This process is repeated until discharge of the last-stage single thermal batteries is completed.

An apparatus and method for these embodiments of the present invention, useful in manufacturing for example, includes a plurality of battery modules serially intercoupled together, each module including a housing with an anode connector and a cathode connector, each housing including a memory for storing a module identifier and wherein an anode connector of a first module is coupled to a cathode connector of a second module; and a processing system, coupled to each the module, for determining a plurality of positional attributes of each the module, one positional attribute associated with each the module of the plurality of modules, the processing system writing an ID into the memory of each particular module responsive to the associated positional attribute for the particular module.

An accumulator structure includes a module having a plurality of flat accumulators flatly disposed in a common plane, and the flat accumulators are electrically connected with each other via electrode terminals. Strip-shaped reinforcement members are attached alternately at a front surface side and a back surface side of the module between the electrode terminals. Thereby, a reinforcement and insulation between the electrode terminals can effectively be carried out while a flat structure of the accumulator structure is maintained and bending flexibility is secured, and the accumulator structure can be adjusted to a third-dimensional installment shape.

A battery receptacle for use with a medical device, said receptacle comprising at least one cavity accessed via a respective door, said cavity adapted to slidably receive at least one non-cylindrical battery to engage with electrical contacts in a single predetermined orientation, said receptacle and said battery each being provided with complementary slidable engagement means that must be engaged with each other when inserting said battery into said cavity, thereby only allowing said battery to engage said contacts in said single predetermined configuration, and wherein said receptacle further comprising at least one portion that allows said battery to be visible when said battery is inserted in said cavity and said door is closed.

A battery pack that economically and reliably interconnects a large number of small form-factor battery cells. A conducting plate with a plurality of sets of tabs protruding from a flat surface of the conducting plate is used to connect electrical terminals of a plurality of battery cells. Each set of tabs is disposed about and exerts a spring force to a respective battery cell, thus mechanically securing and electrically connecting the conducting plate to the cell.

Methods and apparatus to form biocompatible energization elements are described. In some embodiments, the methods and apparatus to form the biocompatible energization elements involve forming cavities comprising active cathode chemistry. The active elements of the cathode and anode are sealed with a laminate stack of biocompatible material. In some embodiments, a field of use for the methods and apparatus may include any biocompatible device or product that requires energization elements.

A method of manufacturing thermal batteries is disclosed. In the method according to the present invention, pellets used in the manufacture of thermal batteries are grouped together based on certain material characteristics such as weight, thickness, and density. Pellets with different material characteristics can be grouped together in a single thermal battery to produce a thermal battery with characteristics that are the average of the characteristics of the pellets used to manufacture the thermal battery.

A subsea system includes an electrically powered control system for controlling the subsea system and a replaceable reserve battery electrically coupled to the control system to provide backup and / or supplemental power to the control system when the reserve battery is activated. The reserve battery is provided in a housing having a first coupling, the subsea system includes a second coupling, and the first and second couplings are detachably connectable to each other and include electrical connections so that the reserve battery is replaceable while the subsea system remains below the sea-surface.

A laminate type battery comprises a substrate, a power generating element which has at least one single cell made by a positive electrode layer, an electrolyte layer and a negative electrode layer which are sandwiched by collecting layers from both sides thereof, and an electric circuit portion having electrode terminals which connect the collecting layers to an external device and circuitries which connect the collecting layers and the electrode terminals. In the battery, the power generating element and the electric circuit portion are formed by stacking a plurality of layers on the substrate, and each of the layers is configured such that the power generating element and the electric circuit portion are formed by stacking the layers.

The invention discloses a deep sea plug-in lithium battery power supply unit, and a system, and belongs to the technical field of seabed energy. The deep sea plug-in lithium battery power supply unitcomprises a plug-in self-compensation cell box, compensation membrane, hydraulic oil, electrical hydraulic watertight connectors, a lithium battery, a battery management system, and a sensor; the lithium battery, the battery management system, and the sensor are arranged in the plug-in self-compensation cell box; the internal part of the plug-in self-compensation cell box is filled with hydraulicoil; the compensation membrane is fixedly arranged on the top end of the plug-in self-compensation cell box using press strips and bolts; the plug-in self-compensation cell box is provided with a swallowtail clamping groove, and a swallowtail clamping part; the lower part of the plug-in self-compensation cell box is provided with two electrical hydraulic watertight connectors. The deep sea plug-inlithium battery power supply unit is capable of solving problems in the prior art that deep sea lithium battery system weight is high and size is large, and maintenance and replacing are inconvenientafter damaging; the modularization degree of the deep sea lithium battery power system is increased, and maintenance and replacing are convenient.

Methods and apparatus to form biocompatible energization elements are described. In some embodiments, the methods and apparatus to form the biocompatible energization elements involve forming cavities comprising active cathode chemistry. The active elements of the cathode and anode are sealed with a laminate stack of biocompatible material. In some embodiments, a field of use for the methods and apparatus may include any biocompatible device or product that requires energization elements.

An inert material is included in the electrode assembling of a battery having a thickness which compensates for a difference in dimension of the electrode assembly when thinner electrodes are used to construct a battery having reduced capacity, to thereby be accommodated in a battery case of uniform dimension regardless of the electrical characteristics of the battery.