mhurhangee/ep-ind-claims huggingface dataset:
Gripper for gripping ends of wires, comprising - at least one connecting means, by which the gripper can be secured to an arm in particular of a robot or a manipulating device, - a first clamping jaw, - a second clamping jaw and - a first drive, - wherein at least the second clamping jaw is coupled to the first drive and can be moved by means of the drive relative to the first clamping jaw and the connecting means between at least a first position and a second position and - wherein in the first position of the second clamping jaw a wire can be introduced into an area adjacent to the first clamping jaw and in the second position of the second clamping jaw a wire can be clamped between the first and the second clamping jaw (2, 3), characterised in that the gripper comprises a catching means which can be moved from a first position to a second position, wherein the catching means in the second position delimits at least on one side the area adjacent to the first clamping jaw. - at least one connecting means, by which the gripper can be secured to an arm in particular of a robot or a manipulating device, - a first clamping jaw, - a second clamping jaw and - a first drive, - wherein at least the second clamping jaw is coupled to the first drive and can be moved by means of the drive relative to the first clamping jaw and the connecting means between at least a first position and a second position and - wherein in the first position of the second clamping jaw a wire can be introduced into an area adjacent to the first clamping jaw and in the second position of the second clamping jaw a wire can be clamped between the first and the second clamping jaw (2, 3),
Power line arrangement comprising a plurality of adjacent and electrically conducting interconnected individual contact elements stamped out of a metal sheet strip, wherein each individual contact element has a region which is formed as an electrical contact, wherein each individual contact element comprises a terminal portion which is adapted for mechanical and electrical attachment of an electrical conductor using a strain relief, characterized in that the terminal portion comprises a first pair of recesses for securing the strain relief, the first pair of recesses and a second pair of recesses in the terminal portion each are centered with respect to a central axis of the individual contact element, the first pair of recesses and the second pair of recesses are arranged offset to one another along the central axis, and a second strip of material, in particular sheet metal strip, can be inserted into the second pair of recesses for forming a press connection between a non-insulated region of the electrical conductor, arranged on the terminal portion between the second pair of recesses, and the terminal portion.
An imaging apparatus that is configured to image an object through an imaging optical system, the imaging apparatus comprising: an imaging element configured to acquire image signals from light imaged by the imaging optical system; a first control unit configured to control exposure parameters of the imaging element; and a second control unit configured to perform processing of switching between and outputting a first image corresponding to a number of first pixels and a second image corresponding to a number of second pixels smaller than the number of first pixels among pixels of the imaging element, wherein the second control unit is configured to perform focusing determination on the basis of the first image, characterized in that the first control unit is configured to reduce an amount of changes in exposure parameters of continuously acquired first and second images which are acquired at the time of continuous photographing, the first image being a still image for recording and the second image being a live view image used for live view, by controlling exposure parameters for acquiring the second image on the basis of the focusing determination so as to decrease changes in appearance between the first image and the second image, wherein the exposure parameters include an aperture value. an imaging element configured to acquire image signals from light imaged by the imaging optical system; a first control unit configured to control exposure parameters of the imaging element; and a second control unit configured to perform processing of switching between and outputting a first image corresponding to a number of first pixels and a second image corresponding to a number of second pixels smaller than the number of first pixels among pixels of the imaging element, wherein the second control unit is configured to perform focusing determination on the basis of the first image, characterized in that the first control unit is configured to reduce an amount of changes in exposure parameters of continuously acquired first and second images which are acquired at the time of continuous photographing, the first image being a still image for recording and the second image being a live view image used for live view, by controlling exposure parameters for acquiring the second image on the basis of the focusing determination so as to decrease changes in appearance between the first image and the second image, wherein the exposure parameters include an aperture value.
A computer vision system for an aircraft, comprising: a camera mounted to the aircraft and configured to output video frame data of a scene ahead of the aircraft; a processor in operable communication with the camera, the processor configured to execute program instructions, wherein the program instructions are configured to cause the processor to process the video frame data to: identify a runway; extract runway pixel positions associated with the runway; determine the aircraft position in a real world coordinate frame based on the pixel positions; receive predefined aircraft position data and go-around rules for a compliant approach to the runway; calculate an aircraft position deviation based on the aircraft position and the predefined aircraft position data; determine whether the aircraft position deviation is in conformance with the go-around rules; and output an indication of conformity with the go-around rules, characterized in that the program instructions are further configured to cause the at least one processor to: receive reference aircraft position data from a global positioning system of the aircraft; cross-check the aircraft position with the reference aircraft position data; and when the cross-check indicates a discrepancy beyond a threshold, outputting a warning and discontinuing determining whether the aircraft position deviation is in conformance with the go-around rules based on the video frame data. a camera mounted to the aircraft and configured to output video frame data of a scene ahead of the aircraft; a processor in operable communication with the camera, the processor configured to execute program instructions, wherein the program instructions are configured to cause the processor to process the video frame data to: identify a runway; extract runway pixel positions associated with the runway; determine the aircraft position in a real world coordinate frame based on the pixel positions; receive predefined aircraft position data and go-around rules for a compliant approach to the runway; calculate an aircraft position deviation based on the aircraft position and the predefined aircraft position data; determine whether the aircraft position deviation is in conformance with the go-around rules; and identify a runway; extract runway pixel positions associated with the runway; determine the aircraft position in a real world coordinate frame based on the pixel positions; receive predefined aircraft position data and go-around rules for a compliant approach to the runway; calculate an aircraft position deviation based on the aircraft position and the predefined aircraft position data; determine whether the aircraft position deviation is in conformance with the go-around rules; and receive reference aircraft position data from a global positioning system of the aircraft; cross-check the aircraft position with the reference aircraft position data; and when the cross-check indicates a discrepancy beyond a threshold, outputting a warning and discontinuing determining whether the aircraft position deviation is in conformance with the go-around rules based on the video frame data.
A computer-implemented method of determining a control sequence for performing a multiqudit algorithm on a quantum computer, the multiqudit algorithm expressible as a series of one or more k -qudit interactions, the method comprising: for each of the k -qudit interactions, decomposing the k -qudit interaction into a sequence of single-qudit unitary rotations and/or two-qudit unitary rotations from the continuous family of controllable unitary rotations generated by underlying physical interactions in hardware of the quantum computer subject to a specified minimum interaction time, said sequence being physically implementable on the quantum computer, wherein the continuous family of controllable unitary rotations are directly physically implementable on the quantum computer, and wherein the decomposing a k -qudit interaction comprises comparing the k -qudit interaction to a parametrised interaction sequence and adjusting parameters of the parametrised interaction sequence to determine the sequence of single-qudit unitary rotations and/or two-qudit unitary rotations from the continuous family of controllable unitary rotations; combining the sequences to form a combined interaction sequence; and determining, based on the combined interaction sequence, the control sequence for performing the multiqudit algorithm on the quantum computer. for each of the k -qudit interactions, decomposing the k -qudit interaction into a sequence of single-qudit unitary rotations and/or two-qudit unitary rotations from the continuous family of controllable unitary rotations generated by underlying physical interactions in hardware of the quantum computer subject to a specified minimum interaction time, said sequence being physically implementable on the quantum computer, wherein the continuous family of controllable unitary rotations are directly physically implementable on the quantum computer, and wherein the decomposing a k -qudit interaction comprises comparing the k -qudit interaction to a parametrised interaction sequence and adjusting parameters of the parametrised interaction sequence to determine the sequence of single-qudit unitary rotations and/or two-qudit unitary rotations from the continuous family of controllable unitary rotations; combining the sequences to form a combined interaction sequence; and determining, based on the combined interaction sequence, the control sequence for performing the multiqudit algorithm on the quantum computer.
Set for installing hair extensions, wherein the set comprises a plurality of connecting elements and at least one extension element, wherein each of the plurality of connecting elements comprises a tubular element provided on an inner side with an anti-slip layer and provided on an outer side with a first magnet, wherein the connecting elements can be connected to respective locks of hair of a person by positioning the tubular element around the locks of hair, and wherein the extension element comprises a base element to which proximal ends of the hair extensions are connected, and wherein the base element further comprises a plurality of second magnets which are compatible with the first magnets of the connecting elements so that the extension elements can be connected via the magnets to the locks of hair of the person.
A recombinant cell or progeny thereof, including a nucleic acid sequence encoding a mutant Clostridium difficile toxin A of SEQ ID NO: 4, SEQ ID NO: 7 or SEQ ID NO: 83.
A device for filtering a pressure signal obtained from a pressure sensor (6a, 6b) in a fluid containing system, the pressure signal comprising first pulses originating from a first periodic pulse generator and second pulses, said device comprising: an input for receiving the pressure signal from the pressure sensor (6a, 6b); and a signal processor connected to the input and being configured to: identify, based on a reference signal which is indicative of a current operating frequency of the first periodic pulse generator, a plurality of harmonics associated with the current operating frequency; compute correlation values between the harmonics and the pressure signal within a time window in the pressure signal; and generate a filtered signal (e) by subtracting, as a function of the correlation values, the harmonics from the pressure signal. an input for receiving the pressure signal from the pressure sensor (6a, 6b); and a signal processor connected to the input and being configured to: identify, based on a reference signal which is indicative of a current operating frequency of the first periodic pulse generator, a plurality of harmonics associated with the current operating frequency; compute correlation values between the harmonics and the pressure signal within a time window in the pressure signal; and generate a filtered signal (e) by subtracting, as a function of the correlation values, the harmonics from the pressure signal. identify, based on a reference signal which is indicative of a current operating frequency of the first periodic pulse generator, a plurality of harmonics associated with the current operating frequency; compute correlation values between the harmonics and the pressure signal within a time window in the pressure signal; and generate a filtered signal (e) by subtracting, as a function of the correlation values, the harmonics from the pressure signal.
A game device being configured to communicate with a message provider server, comprising: a message data acquisition unit configured to acquire message data including a message and additional information from the message provider server, the additional information including condition identification information identifying that a playing condition of a game played on said game device by a first user of said game device and predefined in the game was fulfilled by said first user's playing; a storage device configured to store the acquired message data; a condition identification information acquisition unit configured to acquire, when a playing condition predefined in the game played on said game device by a second user of said game device is fulfilled while said second user is playing, condition identification information identifying the fulfilled playing condition; and a communicating unit characterised in that said communication unit is configured to communicate the message in the acquired message data, if the additional information of the acquired message data stored in said storage device includes condition identification information corresponding to the condition identification information acquired by the condition identification information acquisition unit when the playing condition is fulfilled. a message data acquisition unit configured to acquire message data including a message and additional information from the message provider server, the additional information including condition identification information identifying that a playing condition of a game played on said game device by a first user of said game device and predefined in the game was fulfilled by said first user's playing; a storage device configured to store the acquired message data; a condition identification information acquisition unit configured to acquire, when a playing condition predefined in the game played on said game device by a second user of said game device is fulfilled while said second user is playing, condition identification information identifying the fulfilled playing condition; and a communicating unit characterised in that said communication unit is configured to communicate the message in the acquired message data, if the additional information of the acquired message data stored in said storage device includes condition identification information corresponding to the condition identification information acquired by the condition identification information acquisition unit when the playing condition is fulfilled.
A combined robot, comprising: a self-moving robot and a functional module detachably combined into the self-moving robot through a connector; driving wheels and a follower wheel disposed at a bottom of a machine body of the self-moving robot such that: the driving wheels are located on a left side and a right side of the bottom of the machine body by taking an advancing direction when the self-moving robot operates at a forward direction; and the follower wheel is located at a front end or a rear end of the bottom of the machine body; and a control center is disposed in the combined robot and controls the combined robot to operate, wherein one end away from the follower wheel of the bottom of the machine body of the self-moving robot is a supporting end, wherein the combined robot further comprises: floating supporting mechanisms disposed at the supporting end such that the machine body of the self-moving robot is kept parallel to a walking plane when the self-moving robot walks, wherein the floating supporting mechanisms provide retractable support to the self-moving robot, and when the self-moving robot encounters a step, the floating supporting mechanism is extruded to contract. a self-moving robot and a functional module detachably combined into the self-moving robot through a connector; driving wheels and a follower wheel disposed at a bottom of a machine body of the self-moving robot such that: the driving wheels are located on a left side and a right side of the bottom of the machine body by taking an advancing direction when the self-moving robot operates at a forward direction; and the follower wheel is located at a front end or a rear end of the bottom of the machine body; and the driving wheels are located on a left side and a right side of the bottom of the machine body by taking an advancing direction when the self-moving robot operates at a forward direction; and the follower wheel is located at a front end or a rear end of the bottom of the machine body; and a control center is disposed in the combined robot and controls the combined robot to operate, wherein one end away from the follower wheel of the bottom of the machine body of the self-moving robot is a supporting end, wherein the combined robot further comprises: floating supporting mechanisms disposed at the supporting end such that the machine body of the self-moving robot is kept parallel to a walking plane when the self-moving robot walks, wherein the floating supporting mechanisms provide retractable support to the self-moving robot, and when the self-moving robot encounters a step, the floating supporting mechanism is extruded to contract. floating supporting mechanisms disposed at the supporting end such that the machine body of the self-moving robot is kept parallel to a walking plane when the self-moving robot walks, wherein the floating supporting mechanisms provide retractable support to the self-moving robot, and when the self-moving robot encounters a step, the floating supporting mechanism is extruded to contract.
Fitting having a handle and a resetting device for the handle of the fitting, wherein the resetting device has an escutcheon coupling element, a spring element and a handle coupling element, wherein the escutcheon coupling element has a stop element, wherein the stop element has a first stop surface and a second stop surface (40"), wherein the spring element has a first spring end and a second spring end (48"), wherein the handle coupling element is rotatable relative to the escutcheon coupling element in a circumferential direction about an axis of rotation at least between a first handle stop position and a second handle stop position, wherein the handle coupling element and the spring element are coupled between the first handle stop position and the second handle stop position in the circumferential direction, wherein the spring element, as a result of a rotary movement of the handle coupling element in the circumferential direction, can be rotated in the circumferential direction between a first spring stop position, in which the first spring end bears against the first stop surface, and a second spring stop position, in which the second spring end (48") bears against the second stop surface (40"), wherein the handle coupling element of the resetting device is coupled to the handle in a rotationally fixed manner in the circumferential direction, characterized in that, in the first handle stop position and the second handle stop position, the handle is rotated upwards substantially by an angle of 0° to 7° with respect to a horizontal, wherein, in the first handle stop position, the handle is oriented for a left-hand operation of the fitting and, in the second handle stop position, is oriented for a right-hand operation of the fitting.
A method for wireless communication performed by a user equipment, UE, wherein the UE is a vehicle, the method comprising: identifying that a size of data to be transmitted to a second UE, wherein the second UE is a vehicle, via a shared radio frequency spectrum band allocated for vehicle to vehicle communications exceeds a size threshold, the data to be transmitted during a first transmission time interval, TTI, (310, 410) that includes listen-before-talk, LBT, symbols, control symbols, data symbols and a gap symbol; identifying at least a second TTI (315, 415) during which the data will be transmitted to the vehicle based at least in part on the size of the data exceeding the size threshold, the second TTI being within the shared radio frequency band and adjacent to the first TTI; performing an LBT procedure on a carrier of the shared radio frequency spectrum band; transmitting, during the control symbols of the first TTI, an indication that the data will be transmitted during the data symbols and the gap symbol of the first TTI and during symbols of the second TTI that are concatenated with the data symbols of the first TTI based at least in part on gaining access to the carrier as an outcome of the LBT procedure; and transmitting the data during the data symbols and the gap symbol of the first TTI and during the concatenated symbols of the second TTI, wherein transmitting the data during the concatenated symbols of the second TTI comprises modifying one or more symbols of the second TTI allocated for LBT, control or UE configuration modification to contain data during transmission. identifying that a size of data to be transmitted to a second UE, wherein the second UE is a vehicle, via a shared radio frequency spectrum band allocated for vehicle to vehicle communications exceeds a size threshold, the data to be transmitted during a first transmission time interval, TTI, (310, 410) that includes listen-before-talk, LBT, symbols, control symbols, data symbols and a gap symbol; identifying at least a second TTI (315, 415) during which the data will be transmitted to the vehicle based at least in part on the size of the data exceeding the size threshold, the second TTI being within the shared radio frequency band and adjacent to the first TTI; performing an LBT procedure on a carrier of the shared radio frequency spectrum band; transmitting, during the control symbols of the first TTI, an indication that the data will be transmitted during the data symbols and the gap symbol of the first TTI and during symbols of the second TTI that are concatenated with the data symbols of the first TTI based at least in part on gaining access to the carrier as an outcome of the LBT procedure; and transmitting the data during the data symbols and the gap symbol of the first TTI and during the concatenated symbols of the second TTI, wherein transmitting the data during the concatenated symbols of the second TTI comprises modifying one or more symbols of the second TTI allocated for LBT, control or UE configuration modification to contain data during transmission.