Abstract: The present invention relates to a multi-target electrical stimulation circuit, an electrical stimulator, and a signal output method of the electrical stimulator. The electrical stimulation circuit includes a control module, a plurality of brain wave acquisition modules and a plurality of stimulation adjustment modules. Each electrode is correspondingly provided with one brain wave acquisition module and one stimulation adjustment module, and different electrodes are used for stimulating different targets. The brain wave acquisition modules are used for acquiring brain wave signals in the corresponding electrodes and transmitting the brain wave signals to the control module. The control module is used for acquiring brain rhythm phase signals according to the received brain wave signals and outputting stimulation signals at preset waveform phase points after phase locking of the brain rhythm phase signals.

Abstract: The present invention relates to a multi-target electrical stimulation circuit, an electrical stimulator, and a signal output method of the electrical stimulator. The electrical stimulation circuit includes a control module, a plurality of brain wave acquisition modules and a plurality of stimulation adjustment modules. Each electrode is correspondingly provided with one brain wave acquisition module and one stimulation adjustment module, and different electrodes are used for stimulating different targets. The brain wave acquisition modules are used for acquiring brain wave signals in the corresponding electrodes and transmitting the brain wave signals to the control module. The control module is used for acquiring brain rhythm phase signals according to the received brain wave signals and outputting stimulation signals at preset waveform phase points after phase locking of the brain rhythm phase signals.

Abstract: This application discloses a power consumption control method and system for an electronic positioning device, and an electronic positioning device. The method includes: obtaining sensing data of a sensor for sensing a physical quantity of an object's state of motion (101); determining, based on the sensing data, whether a current condition meets a preset trigger condition, to obtain a first determining result (102); sending a first control instruction when the first determining result indicates that the current condition meets the preset trigger condition (103), where the first control instruction is used to enable a positioning module in the electronic positioning device such that the positioning module is in an on state; and maintaining the positioning module in an off state when the first determining result indicates that the current condition does not meet the preset trigger condition (104).

Abstract: This application discloses a power consumption control method and system for an electronic positioning device, and an electronic positioning device. The method includes: obtaining sensing data of a sensor for sensing a physical quantity of an object's state of motion (101); determining, based on the sensing data, whether a current condition meets a preset trigger condition, to obtain a first determining result (102); sending a first control instruction when the first determining result indicates that the current condition meets the preset trigger condition (103), where the first control instruction is used to enable a positioning module in the electronic positioning device such that the positioning module is in an on state; and maintaining the positioning module in an off state when the first determining result indicates that the current condition does not meet the preset trigger condition (104).

Abstract: A locked coil wire rope includes a circular steel wire inner layer, a central metal core, and a Z-shaped steel wire outer layer. The central metal core has a structure of 1×19W, 1×19S, 1×26WS, 1×31WS, 1×31SW, 1×49SWS or 1×55SWS. The circular steel inner layer includes at least two circular steel wire layers, and a number of steel wires of circular steel wire layer is no less than 18. The Z-shaped steel wire outer layer includes at least one Z-shaped steel wire layer, and a number of steel wires of the Z-shaped steel wire layer is no less than 51. A capacity expansion framework is further disclosed.

Abstract: A locked coil wire rope includes a circular steel wire inner layer, a central metal core, and a Z-shaped steel wire outer layer. The central metal core has a structure of 1×19W, 1×19S, 1×26WS, 1×31WS, 1×31SW, 1×49SWS or 1×55SWS. The circular steel inner layer includes at least two circular steel wire layers, and a number of steel wires of circular steel wire layer is no less than 18. The Z-shaped steel wire outer layer includes at least one Z-shaped steel wire layer, and a number of steel wires of the Z-shaped steel wire layer is no less than 51. A capacity expansion framework is further disclosed.

Abstract: Rank deficient decoding for linear network coding. The decoding problem is first decomposed into multiple parallel sub-problems. A determination is made whether the decoding problem is or is not rank deficient. If rank deficient, and for each sub-problem, a rank deficient decoder is applied to obtain a solution.

Abstract: Rank deficient decoding for linear network coding. The decoding problem is first decomposed into multiple parallel sub-problems. A determination is made whether the decoding problem is or is not rank deficient. If rank deficient, and for each sub-problem, a rank deficient decoder is applied to obtain a solution.