Abstract: A device for connection detection is provided. The device includes: a power connecting end, in electrical connection with a power module; a load connecting end, in electrical connection with an external load; a switch circuit, electrically connected between the power connecting end and the load connecting end; a voltage control circuit, in electrical connection with the load connecting end and configured to output a voltage through the load connecting end; and a voltage detecting circuit, in electrical connection with the load connecting end and configured to measure voltage of the load connecting end and output a voltage detection signal, the voltage detection signal being configured to control an ON/OFF state of the switch circuit. A jump starter apparatus including the device for connection detection and a battery clip including the device for connection detection are further provided.

Abstract: A smart connection device, a jump starter device, and a battery clamp device are provided. The smart connection device includes a power connection terminal, a load connection terminal, a switch module, and a load detection module. The power connection terminal configured to be electrically connected to a power module. The load connection terminal configured to be electrically connected to an external load. The switch module is electrically connected between the power connection terminal and the load connection terminal. The load detection module is configured to detect a connection state of an external load and an electrical parameter of the external load, and output a corresponding detection signal at a detection signal output terminal of the load detection module. The detection signal is used for controlling the switch module.

Abstract: A packaging method and a packaging body are provided. The packaging method includes: obtaining a mounting plate defining multiple mounting holes; disposing a target device in each of the multiple mounting holes; performing plastic sealing on the multiple mounting holes to form packaging bodies, and each of the packaging bodies wrapping the target device; and performing chemical etching on the mounting plate until each of the packaging bodies is separated from each other, and obtaining multiple independent packaging bodies. In this way, appearance quality is ensured, separation efficiency of the large plate is improved, freedom of batch separation of the packaging bodies is improved, and more possibilities for the shape of each of the packaging bodies are provided.

Abstract: A method for preparing a package body includes: obtaining a processed plate including a carrier plate arranged with one or more first pads disposed on each of opposite sides thereof and a first plastic packaging layer attached to the each of the opposite sides of the carrier plate; preparing a connecting member on a side of the first plastic packaging layer away from the carrier plate, performing a depth-controlled operation on a preset position of the first plastic packaging layer until a cross section of the connecting member is exposed, and forming a depth-controlled groove; mounting a chip upright in the depth-controlled groove; and forming a second plastic packaging layer on the side of the first plastic packaging layer away from the carrier plate, dividing the carrier plate into at least two package bodies. A package body is also provided.

Abstract: A switch circuit includes a control unit, a driving unit, a voltage sudden-change unit, and a connection unit. The connection unit is configured to turn on or turn off an electrical connection between a power-supply device and a load. The control unit is configured to control the driving unit to output or stop outputting a driving signal to the connection unit, where the driving signal allows to turn on the connection unit. The voltage sudden-change unit is coupled with a driving node between the driving unit and the connection unit. The control unit is configured to control the voltage sudden-change unit to output a voltage sudden-change signal to the driving node, where the voltage sudden-change signal allows to make the connection unit be switched to a turned-off state from a turned-on state quickly when the driving unit stops outputting the driving signal.

Abstract: A shared charging cabinet and an ejecting control method thereof are provided. The method includes the steps of: a comprehensive ranking of shared power supplies (200) currently contained in the shared charging cabinet (100) is performed according to lending times and remaining power of shared power supplies; when the shared charging cabinet (100) receives a lending instruction, one of the shared power supplies (200) is controlled to be ejected according to the comprehensive ranking in response to the lending instruction. Therefore, the ejecting order of the shared power supplies (200) in this application is determined according to the lending times and the remaining power of the shared power supplies (200), so that the ejecting times of the shared power supplies (200) in the shared charging cabinet (100) is balanced, and the service life of the shared power supplies (200) can be further balanced.

Abstract: Techniques for storing and using multi-session context are described. A system may store context data corresponding to a first interaction, where the context data may include action data, entity data and a profile identifier for a user. Later the stored context data may be retrieved during a second interaction corresponding to the entity of the second interaction. The second interaction may take place at a system different than the first interaction. The system may generate a response during the second interaction using the stored context data of the prior interaction.

Abstract: An output control circuit, a start power supply, and a battery clip are provided in the present disclosure. The output control circuit includes a power supply end, a load end, and a first protection module. The power supply end is configured to be connected with a power supply module. The load end is configured to be connected with an external load device. The power supply end is electrically connected with the load end at least through the first protection module, to implement the power supply module supplying power to the external load device at least through the first protection module. The first protection module is configured to monitor a power supply state of the power supply module supplying power to the external load device, and disconnect a connection between the power supply end and the load end or limit a current based on the power supply state.

Abstract: The present disclosure provides a smart connection device, a jump starter and a battery clamp. The smart connection device includes a power connection terminal coupled to an energy storage module, a load connection terminal coupled to an external load, a switch element, a power supply loop, and a reverse connection detection module. The reverse connection detection module outputs a first control signal to the power supply loop, when the external load is reversely coupled to the load connection terminal. The power supply loop is in a disconnection state and supplies no power to the switch element when it receives the first control signal. The switch element is in an off state when it receives no power supply, to make the power connection terminal and the load connection terminal be in a disconnection state, thereby preventing the energy storage module from providing a discharge output to the external load.

Abstract: The titanium-containing oxide slag, low-purity silicon and slagging fluxes are subject to reduction smelting together, and a bulk Si—Ti intermediate alloy is obtained by slag-metal separation; the obtained bulk Si—Ti intermediate alloy is crushed into Si—Ti intermediate alloy particles; and the obtained Si—Ti intermediate alloy particles are used as an anode, metallic molybdenum or metallic nickel as a cathode, metallic titanium as a reference electrode, and NaCl—KCl—NaF together with small amounts of Na3TiF6 or K3TiF6 as a molten salt, to carry out the electrolysis under a high-purity argon atmosphere at a temperature of 973 K. Ti in the Si—Ti intermediate alloy particles dissolved at the anode and deposited at the cathode, while Si in the Si—Ti intermediate alloy particles fell off from the anode as metallic silicon powder.

Abstract: An energy storage system, a primary energy-storage-apparatus, and an auxiliary energy-storage-apparatus are provided in embodiments of the disclosure. The energy storage system includes a primary energy-storage-apparatus and a first auxiliary energy-storage-apparatus. The primary energy-storage-apparatus includes a main controller, a first battery group, at least one power-supply-interface, and a first auxiliary machine-interface. The at least one power-supply-interface is connectable to an electronic device. The main controller is configured to control the first battery group or the first auxiliary energy-storage-apparatus to power the electronic device.

Abstract: Techniques for storing and using multi-session context are described. A system may store context data corresponding to a first interaction, where the context data may include action data, entity data and a profile identifier for a user. Later the stored context data may be retrieved during a second interaction corresponding to the entity of the second interaction. The second interaction may take place at a system different than the first interaction. The system may generate a response during the second interaction using the stored context data of the prior interaction.

Abstract: The present invention provides a battery clamp, comprising: a first and second wire clamps and a control device. Each of the first and second wire clamps is electrically connected to the control device. The control device comprises: a housing; a master-control board mounted within the housing; and connectors disposed at one side of the housing, and being electrically connected to the master-control board, comprising: at least a first and second electrode connectors, which are connected to an external power supply for receiving power, and at least one communication connector connected to the external power supply for building a communication connection between the battery clamp and the external power supply. The battery clamp is communicatively connected to the external power supply by the communication connector, thereby effectively solving the problems of a lithium battery in an external power supply e.g. battery bulge or explosion resulted from improper uses.