mhurhangee/ep-ind-claims huggingface dataset:
A battery module produced by the method of claim 11, said battery module, comprising: - a power assembly, comprising: - a plurality of battery cells; and - a plurality of bus bars that electrically couples a terminal of each of the plurality of battery cells to a terminal of an adjacent battery cell of the plurality of battery cells; - a lead frame, comprising: - a plurality of cell taps respectively electrically coupled to corresponding ones of the plurality of bus bars of the power assembly; - a plurality of leads that extends from the plurality of cell taps; - a plurality of broken interconnects that electrically isolates the plurality of cell taps from one another and electrically isolates the plurality of leads from one another; and - a housing cover that is insert molded around the lead frame (64, 80) wherein the housing cover comprises a plurality of access holes that are respectively aligned with the plurality of broken interconnects of the lead frame. - a power assembly, comprising: - a plurality of battery cells; and - a plurality of bus bars that electrically couples a terminal of each of the plurality of battery cells to a terminal of an adjacent battery cell of the plurality of battery cells; - a plurality of battery cells; and - a plurality of bus bars that electrically couples a terminal of each of the plurality of battery cells to a terminal of an adjacent battery cell of the plurality of battery cells; - a lead frame, comprising: - a plurality of cell taps respectively electrically coupled to corresponding ones of the plurality of bus bars of the power assembly; - a plurality of leads that extends from the plurality of cell taps; - a plurality of broken interconnects that electrically isolates the plurality of cell taps from one another and electrically isolates the plurality of leads from one another; and - a housing cover that is insert molded around the lead frame (64, 80) - a plurality of cell taps respectively electrically coupled to corresponding ones of the plurality of bus bars of the power assembly; - a plurality of leads that extends from the plurality of cell taps; - a plurality of broken interconnects that electrically isolates the plurality of cell taps from one another and electrically isolates the plurality of leads from one another; and - a housing cover that is insert molded around the lead frame (64, 80)
A system for measuring structural integrity comprising: a self-contained rapid modal testing trailer that delivers a mass to a structure being tested and records data resulting from the mass in a data acquisition program, the testing trailer comprising: an impact device that delivers the mass and comprises a strike surface; a sensor assembly that extends from the testing trailer to engage the structure; and the impact device comprises the mass that impacts the strike surface to deliver the impact load; wherein when the mass strikes the strike-surface, a rebound control system is activated to catch the mass from striking the strike surface a second time thereby preventing rebound of the mass; the system characterized in that: the testing trailer comprises a second impact device and the sensor assembly comprises local sensors spaced along outer sensor array arms and extended from the trailer by an adjustable inner sensor arm, wherein the inner sensor arms may be able to rotate as well as extend and retract longitudinally and transversely. an impact device that delivers the mass and comprises a strike surface; a sensor assembly that extends from the testing trailer to engage the structure; and the impact device comprises the mass that impacts the strike surface to deliver the impact load; wherein when the mass strikes the strike-surface, a rebound control system is activated to catch the mass from striking the strike surface a second time thereby preventing rebound of the mass; the system characterized in that: the testing trailer comprises a second impact device and the sensor assembly comprises local sensors spaced along outer sensor array arms and extended from the trailer by an adjustable inner sensor arm, wherein the inner sensor arms may be able to rotate as well as extend and retract longitudinally and transversely. the testing trailer comprises a second impact device and the sensor assembly comprises local sensors spaced along outer sensor array arms and extended from the trailer by an adjustable inner sensor arm, wherein the inner sensor arms may be able to rotate as well as extend and retract longitudinally and transversely.
A household electrical appliance comprising a frame, a steam generator, means of fastening said steam generator onto said frame, - said means of fastening comprising at least one fastening spacer for fastening said steam generator onto said frame and at least one fastening notch arranged in a wall of said frame; - wherein said at least one fastening spacer comprises two opposite lateral edges provided with a groove; and - wherein said grooves of said at least one fastening spacer fit respectively into a lateral edge of said at least one notch - arranged in said wall of said frame; characterized in that said steam generator comprises at least one mounting bracket; and in that said at least one fastening spacer comprises at least one spacing wall between said grooves of said at least one fastening spacer that respectively fit into a lateral edge of said at least one notch arranged in said wall of said frame and a wall of said at least one fastening spacer mating with said at least one mounting bracket of said steam generator. - said means of fastening comprising at least one fastening spacer for fastening said steam generator onto said frame and at least one fastening notch arranged in a wall of said frame; - wherein said at least one fastening spacer comprises two opposite lateral edges provided with a groove; and - wherein said grooves of said at least one fastening spacer fit respectively into a lateral edge of said at least one notch - arranged in said wall of said frame; characterized in that said steam generator comprises at least one mounting bracket; and in that said at least one fastening spacer comprises at least one spacing wall between said grooves of said at least one fastening spacer that respectively fit into a lateral edge of said at least one notch arranged in said wall of said frame and a wall of said at least one fastening spacer mating with said at least one mounting bracket of said steam generator.
A bone-conduction sound transmission device, comprising, a signal output module for providing a digital audio signal; a signal conversion and emission module, for converting the digital audio signal into a vibration signal and emitting the vibration signal; a signal detection module, for detecting the vibration signal for a plurality of positions in the transmission path from the signal conversion and emission module to a receiving end, the signal detection module comprising a signal amplitude detection unit for detecting an amplitude of the vibration signal for each of the positions in the transmission path, wherein the bone-conduction sound transmission device further comprises a signal feedback module which is configured to calculate an amplitude attenuation coefficient of the vibration signal at each of the positions, determine an amplitude compensation signal based on the amplitude attenuation coefficient and compensate for the vibration signal generated from the signal conversion and emission module with the amplitude compensation signal, wherein the amplitude compensation signal is a function of the amplitude attenuation coefficient, wherein the signal amplitude detection unit comprises a plurality of signal amplitude detection components (311, 312, 313), each signal amplitude detection component corresponding to the position to be detected, which is configured to detect the amplitude of the vibration signal transmitted to the corresponding position, wherein the number of the positions is N, each position being associated with the corresponding signal amplitude detection component for detecting the amplitude of the vibration signal transmitted to this position, wherein the signal feedback module calculates the amplitude attenuation coefficient for the vibration signal at each of the positions according to the following equation, α i = U 0 − U i / U 0 wherein α i denotes the amplitude attenuation coefficient of the vibration signal transmitted to the i-th position, and i is a positive integer, the maximum value of which corresponds to the number of the positions; wherein U 0 denotes an initial amplitude of the vibration signal emitted from the signal conversion and emission module, and U i denotes the amplitude of the vibration signal transmitted to the i-th position; wherein the signal feedback module further determines the amplitude compensation signal for each position according to the following equation, B i = f α i wherein B i denotes the amplitude compensation signal for the i-th position, f ( α i) is a piecewise function, so that B i is in the form of a pulse signal, the value of which is more than one times as large as that of α i.
Decoder for decoding a coded signaling of a multi-tree structure prescribing a spatial multi-tree subdivision of a tree root block according to which the tree root block is recursively multi-partitioned into leaf blocks (152a, 152b, 154a, 156a, 156b, 156c, 156d, 154c, 154d, 152d), the coded signaling comprising a sequence of flags associated with nodes of the multi-tree structure in a depth-first order, and each flag specifying whether an area of the tree root block corresponding to the node with which the respective flag is associated, is multi-partitioned, characterized in that the decoder being configured to sequentially entropy-decode the flags using probability estimation contexts which are the same for flags associated with nodes of the multi-tree structure lying within the same hierarchy level of the multi-tree structure, but different for nodes of the multi-tree structure lying within different hierarchy levels of the multitree structure, wherein the decoder is configured to decode signalings of multi-tree structures prescribing a spatial multi-tree subdivision of a plurality of tree root blocks which, in turn, are leaf blocks of another multi-tree sub-division of a greater two-dimensional portion, in a depth-first traversal order defined among the plurality of tree root blocks, and wherein the coding signalings of the multi-tree structures each comprise a sequence of flags associated with nodes of the respective multi-tree structure in depth-first traversal order, and each flag specifying whether an area of the respective tree root blocks corresponding to the node with which the respective flag is associated, is multi-partitioned, the decoder being configured to sequentially entropy-decode the flags using probability estimation contexts which are the same for flags associated with areas of the same size. the decoder being configured to sequentially entropy-decode the flags using probability estimation contexts which are the same for flags associated with nodes of the multi-tree structure lying within the same hierarchy level of the multi-tree structure, but different for nodes of the multi-tree structure lying within different hierarchy levels of the multitree structure, wherein the decoder is configured to decode signalings of multi-tree structures prescribing a spatial multi-tree subdivision of a plurality of tree root blocks which, in turn, are leaf blocks of another multi-tree sub-division of a greater two-dimensional portion, in a depth-first traversal order defined among the plurality of tree root blocks, and wherein the coding signalings of the multi-tree structures each comprise a sequence of flags associated with nodes of the respective multi-tree structure in depth-first traversal order, and each flag specifying whether an area of the respective tree root blocks corresponding to the node with which the respective flag is associated, is multi-partitioned, the decoder being configured to sequentially entropy-decode the flags using probability estimation contexts which are the same for flags associated with areas of the same size.
A communication system comprising a detection server; a mobile terminal; and a control apparatus; the detection server comprising: detecting means for detecting a change of an interval time of communication of a mobile terminal based on an event notice that indicates the change, the event notice being transmitted from the mobile terminal; and notifying means for transmitting, upon the detecting means detecting said change of the interval time of the communication, a first parameter indicating changed interval time of communication of the mobile terminal corresponding to the change of the interval time of the communication, to the control apparatus; and the control apparatus comprising: control means for determining a second parameter related to idle transition of the mobile terminal and a third parameter related to an intermittent reception interval of the mobile terminal using the first parameter. parameter; and notifying means for transmitting the second parameter and the third parameter to a radio base station. detecting means for detecting a change of an interval time of communication of a mobile terminal based on an event notice that indicates the change, the event notice being transmitted from the mobile terminal; and notifying means for transmitting, upon the detecting means detecting said change of the interval time of the communication, a first parameter indicating changed interval time of communication of the mobile terminal corresponding to the change of the interval time of the communication, to the control apparatus; and the control apparatus comprising: control means for determining a second parameter related to idle transition of the mobile terminal and a third parameter related to an intermittent reception interval of the mobile terminal using the first parameter. parameter; and notifying means for transmitting the second parameter and the third parameter to a radio base station. control means for determining a second parameter related to idle transition of the mobile terminal and a third parameter related to an intermittent reception interval of the mobile terminal using the first parameter. parameter; and notifying means for transmitting the second parameter and the third parameter to a radio base station.
A multi-stage transmission tensioning device for automobile safety, comprising a base group having a base and a handle group having a handle, the base group and the handle group are connected through a multi-stage transmission group; characterized in that the multi-stage transmission group comprises a transmission shaft for pivoting both with the base of the base group and the handle of the handle group, a main rotating shaft fixed on the base and used for winding a long strap, and a transmission wheel fixed on the transmission shaft; and the transmission wheel realizes a rotation state required for binding, a non-rotation state required for locking, and a free state required for unlocking under the action of the base group and the handle group.
An electrically controllable electrochromic device, comprising two external substrates and a functional electrochromic film consisting of a layer or a stack of layers and which is placed between the substrates which meet the following criteria: - at least one is essentially transparent; - at least one is based on one (or more) film(s) based on one or more polymers; - each of them is a water vapor barrier, with a water vapor permeability of at most 0.1 g/m 2 /24 h, characterized in that at least one of the external substrates comprises a sheet of halogenated polymer based on polychlorotrifluorethylene (PCTFE). - at least one is essentially transparent; - at least one is based on one (or more) film(s) based on one or more polymers; - each of them is a water vapor barrier, with a water vapor permeability of at most 0.1 g/m 2 /24 h,
A microrobot comprising: a rotating shaft; a main magnet fixedly coupled to the rotating shaft; a first support body fitted around the rotating shaft, and rotatable about the rotating shaft; a first driving magnet fixedly coupled to the first support body, and having a magnetic moment having a magnitude that is smaller than a magnitude of a magnetic moment of the main magnet; and a plurality of first legs coupled to an outer circumferential surface of the first support body, when an external rotating magnetic field having a frequency that is smaller than the step-out frequency of the main magnet and larger than the step-out frequency of the first driving magnet is generated, the first driving magnet is not synchronized with the external rotating magnetic field and the main magnet is synchronized with the external rotating magnetic field. a rotating shaft; a main magnet fixedly coupled to the rotating shaft; a first support body fitted around the rotating shaft, and rotatable about the rotating shaft; a first driving magnet fixedly coupled to the first support body, and having a magnetic moment having a magnitude that is smaller than a magnitude of a magnetic moment of the main magnet; and a plurality of first legs coupled to an outer circumferential surface of the first support body, when an external rotating magnetic field having a frequency that is smaller than the step-out frequency of the main magnet and larger than the step-out frequency of the first driving magnet is generated, the first driving magnet is not synchronized with the external rotating magnetic field and the main magnet is synchronized with the external rotating magnetic field.
Pressure release device (12, 13) having a pressure release wall which controls a passability of a pressure release opening and is movable relative to the pressure release opening, in which a detent is disposed in a motion path of the pressure release wall; the pressure release wall has a first pivot point, characterized in that a second pivot point is disposed in the pressure release wall; the pressure release wall is deformable about a pivot point (20, 21); the pressure release wall is configured in such a manner that, when overload pressure arises, in particular plastic forming of the pressure release wall about the second pivot point takes place on the detent; securing the pressure release wall in a form-fitting manner on the detent takes place on account of the forming. a detent is disposed in a motion path of the pressure release wall; the pressure release wall has a first pivot point, characterized in that a second pivot point is disposed in the pressure release wall; the pressure release wall is deformable about a pivot point (20, 21); the pressure release wall is configured in such a manner that, when overload pressure arises, in particular plastic forming of the pressure release wall about the second pivot point takes place on the detent; securing the pressure release wall in a form-fitting manner on the detent takes place on account of the forming.
An implantable medical device for implantation in a patient, comprising: a neural stimulation circuit configured for use to deliver a neural stimulation therapy to the patient; and a controller configured to: control the neural stimulation circuit to deliver the neural stimulation therapy; detect a patient-controlled trigger; automatically interrupt the therapy in response to the detected trigger, wherein automatically interrupting includes automatically modifying or automatically stopping the therapy; and automatically restore the therapy after a defined period after the detected trigger, wherein the controller includes an override controller configured to count a number of detected triggers over a defined period, compare the number of detected triggers over the defined period to a defined number of triggers, and characterized in that said override controller is further configured to automatically interrupt the therapy when the number of detected triggers over the defined period reaches the defined number of triggers until an authorized individual resets the therapy. a neural stimulation circuit configured for use to deliver a neural stimulation therapy to the patient; and a controller configured to: control the neural stimulation circuit to deliver the neural stimulation therapy; detect a patient-controlled trigger; automatically interrupt the therapy in response to the detected trigger, wherein automatically interrupting includes automatically modifying or automatically stopping the therapy; and automatically restore the therapy after a defined period after the detected trigger, wherein the controller includes an override controller configured to count a number of detected triggers over a defined period, compare the number of detected triggers over the defined period to a defined number of triggers, and characterized in that said override controller is further configured to automatically interrupt the therapy when the number of detected triggers over the defined period reaches the defined number of triggers until an authorized individual resets the therapy. control the neural stimulation circuit to deliver the neural stimulation therapy; detect a patient-controlled trigger; automatically interrupt the therapy in response to the detected trigger, wherein automatically interrupting includes automatically modifying or automatically stopping the therapy; and automatically restore the therapy after a defined period after the detected trigger, wherein the controller includes an override controller configured to count a number of detected triggers over a defined period, compare the number of detected triggers over the defined period to a defined number of triggers, and characterized in that said override controller is further configured to automatically interrupt the therapy when the number of detected triggers over the defined period reaches the defined number of triggers until an authorized individual resets the therapy.
Drive system for a pedelec or e-bike with an electric motor as the drive motor, a rotatably mounted pedal crankshaft and a first transmission, wherein the first transmission and the drive motor are arranged in the central region of the vehicle, the drive motor is connected via a second transmission (9a, 9b) to a central shaft (6, 20), the central shaft (6, 20) being connected directly or via a third transmission (18a, 18b, 19) to the input of the first transmission or forming its input shaft, and in that the output shaft of the first transmission is connected or connectable to the rear wheel shaft of the vehicle via a fourth transmission (10a, 10b, 11), wherein the first transmission is a transmission with a plurality of gears, in particular a hub transmission or a continuously variable transmission, a control computer shifting the first transmission, characterized in that the speed of the pedal crankshaft is applied to the input of the first transmission with a ratio of less than 0.3, in particular between 0.2 and 0, 25 to the input of the first transmission and the speed of the drive motor is transmitted to the input of the first transmission with a transmission ratio greater than 3, in particular between 4 and 5, a fourth transmission (10a, 10b, 11) transmitting the speed of the output shaft of the first transmission to the driven rear wheel with a transmission ratio greater than 1, in particular greater than 1.5.