mhurhangee/patent-ind-claim-en huggingface dataset:
A computer system comprising at least one processor device , wherein the computer system is configured to: generate voltage waveforms based on time series voltage data received from first smart meters (102A-D, 403A-408B) that are indicated as being connected to a first transformer (402A-F) in an electric grid; characterized in that the computer system is further configured to: identify as a first identified interval each time interval during which a polarity of a slope of the voltage waveform of a first one of the first smart meters (102A-D, 403A-408B) is opposite to a polarity of slopes of the voltage waveforms of a majority of the first smart meters (102A-D, 403A-408B); and generate a flag for the first one of the first smart meters (102A-D, 403A-408B) each time a magnitude of the slope of the voltage waveform of the first one of the first smart meters (102A-D, 403A-408B) at one of the first identified intervals is an outlier compared to magnitudes of the slopes of the voltage waveforms of the majority of the first smart meters (102A-D, 403A-408B). generate voltage waveforms based on time series voltage data received from first smart meters (102A-D, 403A-408B) that are indicated as being connected to a first transformer (402A-F) in an electric grid; characterized in that the computer system is further configured to: identify as a first identified interval each time interval during which a polarity of a slope of the voltage waveform of a first one of the first smart meters (102A-D, 403A-408B) is opposite to a polarity of slopes of the voltage waveforms of a majority of the first smart meters (102A-D, 403A-408B); and generate a flag for the first one of the first smart meters (102A-D, 403A-408B) each time a magnitude of the slope of the voltage waveform of the first one of the first smart meters (102A-D, 403A-408B) at one of the first identified intervals is an outlier compared to magnitudes of the slopes of the voltage waveforms of the majority of the first smart meters (102A-D, 403A-408B). identify as a first identified interval each time interval during which a polarity of a slope of the voltage waveform of a first one of the first smart meters (102A-D, 403A-408B) is opposite to a polarity of slopes of the voltage waveforms of a majority of the first smart meters (102A-D, 403A-408B); and generate a flag for the first one of the first smart meters (102A-D, 403A-408B) each time a magnitude of the slope of the voltage waveform of the first one of the first smart meters (102A-D, 403A-408B) at one of the first identified intervals is an outlier compared to magnitudes of the slopes of the voltage waveforms of the majority of the first smart meters (102A-D, 403A-408B).
Control system for actuating a motorized closure element of a motor vehicle, wherein in order to sense operator events at least one sensor controller and at least one elongate distance sensor extending along a sensor extent are provided, wherein the sensor controller actuates the assigned distance sensor and/or evaluates its sensor signals, and wherein the distance sensor senses a distance (a) from a user (B), characterized in that when there is a control system installed a vehicle component , in particular a trailer hitch or the like, is arranged or can be arranged in or along the sensor extent, in that the distance sensor is configured in such a way that it has a blind section in the region of the vehicle component , which blind section does not have any sensitivity or has lower sensitivity compared with the region of the distance sensor which adjoins the blind section , and in that the blind section is an interruption in the distance sensor along the sensor extent, so that a sensor module is arranged on each side of the vehicle component .
A method of determining an ability of a battery connected to an electric starter motor to start, based on actual crank conditions, an internal combustion engine (crank health), wherein the battery is a single monobloc or a plurality of monoblocs that are electrically connected in series or parallel, the method comprising: detecting a crank event based on monitoring battery voltage; sensing a battery temperature (a Crank Temperature) and the battery voltage (a Crank Voltage) during the crank event; storing the Crank Temperature and the Crank Voltage associated with the crank event by incrementing a counter in a cell, of MxN cells of a crank matrix, that corresponds to the crank temperature and the crank voltage associated with the crank event, wherein each cell corresponds to a designated crank temperature range and a designated crank voltage range; and determining the crank health of the battery based on analysis of changes in the Crank Temperature and the Crank Voltage. detecting a crank event based on monitoring battery voltage; sensing a battery temperature (a Crank Temperature) and the battery voltage (a Crank Voltage) during the crank event; storing the Crank Temperature and the Crank Voltage associated with the crank event by incrementing a counter in a cell, of MxN cells of a crank matrix, that corresponds to the crank temperature and the crank voltage associated with the crank event, wherein each cell corresponds to a designated crank temperature range and a designated crank voltage range; and determining the crank health of the battery based on analysis of changes in the Crank Temperature and the Crank Voltage.
Device for locking a pivoting device such as a door, window or the like, comprising a fixing unit having a fixing portion for fixing the device to an edge of the pivotable device, an actuating unit , which is mounted pivotably or rotatably in a pivoting plane (S) on a fastening unit bearing area of the fastening unit , wherein the actuating unit has a stopper element , wherein the stopper element has a support surface which is convexly curved in or along the pivot plane (S), characterised in that the fastening area has the shape of a U-shaped rail and is formed from a base and two legs extending transversely away from the latter, wherein the mounting unit bearing portion is provided on the base .
A surgical system comprising: a frame , wherein the frame comprises a first side , a second side , a third side , and a fourth side that form a continuous perimeter around a frame opening, wherein the frame includes upper and lower surfaces having a plurality of protrusions for engaging adjacent vertebrae; a spacer received in the frame opening, the spacer having an upper surface and a lower surface, wherein the spacer comprises a first arm and a second arm extend around a spacer opening , the spacer opening extending from the upper surface to the lower surface of the spacer , wherein an outer wall of the spacer includes grooves for receiving nubs positioned on an inner wall of the frame for securing the spacer to the frame ; and one or more fixation members insertable in the frame , wherein the one or more fixation members includes at least a first fixation member that is angled in an upward direction and a second fixation member that is angled in a downward direction. a frame , wherein the frame comprises a first side , a second side , a third side , and a fourth side that form a continuous perimeter around a frame opening, wherein the frame includes upper and lower surfaces having a plurality of protrusions for engaging adjacent vertebrae; a spacer received in the frame opening, the spacer having an upper surface and a lower surface, wherein the spacer comprises a first arm and a second arm extend around a spacer opening , the spacer opening extending from the upper surface to the lower surface of the spacer , wherein an outer wall of the spacer includes grooves for receiving nubs positioned on an inner wall of the frame for securing the spacer to the frame ; and one or more fixation members insertable in the frame , wherein the one or more fixation members includes at least a first fixation member that is angled in an upward direction and a second fixation member that is angled in a downward direction.
Vehicle having an oil supply arrangement with an electrical machine (EM) in a machine housing with at least one oil volume which is connected to an oil volume (A) of a transmission housing of the vehicle for supplying oil, wherein the oil volume of the electrical machine (EM) is subdivided into at least two oil supply chambers (B, C) for equalizing the oil level in the machine housing , wherein a first oil supply chamber (B) is arranged on a side of the machine housing facing the direction of travel (FR) of the vehicle and a second oil supply chamber (C) is arranged on a side of the machine housing facing away from the direction of travel (FR) of the vehicle, characterized in that a rotor of the electrical machine (EM) runs transversely to the longitudinal orientation of the vehicle and in that the first oil supply chamber (B) and the second oil supply chamber (C) run parallel to a rotor axis of the rotor of the electrical machine (EM) and wherein the first oil supply chamber (B) and the second oil supply chamber (C) are arranged laterally opposite one another below the rotor axis of the electrical machine (EM). (A) of a transmission housing of the vehicle for supplying oil, wherein the oil volume of the electrical machine (EM) is subdivided into at least two oil supply chambers (B, C) for equalizing the oil level in the machine housing , wherein a first oil supply chamber (B) is arranged on a side of the machine housing facing the direction of travel (FR) of the vehicle and a second oil supply chamber (C) is arranged on a side of the machine housing facing away from the direction of travel (FR) of the vehicle, characterized in that a rotor of the electrical machine (EM) runs transversely to the longitudinal orientation of the vehicle and in that the first oil supply chamber (B) and the second oil supply chamber (C) run parallel to a rotor axis of the rotor of the electrical machine (EM) and wherein the first oil supply chamber (B) and the second oil supply chamber (C) are arranged laterally opposite one another below the rotor axis of the electrical machine (EM).
Speed reducer with two intermediate transmission lines , in particular for a turbomachine, comprising an input line and an output line driven by the input line by means of said intermediate lines , these intermediate lines being substantially parallel, characterised in that it comprises a means of distribution of load between said intermediate lines, this means of load distribution comprising ball-and-socket means for swivel coupling a first end of the input line , first means for damping the radial movements of said first end of the input line, and secondary means for damping the radial movements of a second opposite end of the input line .
An environmental sanitizing device comprising a frame housing a reservoir of a disinfectant liquid and supporting a nozzle , the nozzle being associated with a generation system of an air flow within which a plurality of disinfectant liquid particles are suspended so as to sanitize a closed environment in which the device can be positioned, wherein the nozzle is movable relative to the frame, and is associated with positioning system controlled by a control unit for the orientation of the nozzle with respect to at least two mutually perpendicular axes (R, A), preferably around a first vertical axis (R) and a around a second horizontal axis (A) so as to automatically orient the nozzle through the positioning system in a desired direction with respect to the frame during a sanitization step, characterised by the nozzle being coupled with at least one distance detector (L1, L2, L3, L4) able to determine the distance between the nozzle and an obstacle facing it, the generation system comprising a blower controlled by the control unit , the control unit being configured to adjust the power of the blower in function of the distance detected by at least a detector (L1, L2, L3, L4).
A radio frame transmission method, wherein the method comprises: determining radio frame configuration information; and performing uplink transmission of a radio frame according to the radio frame configuration information, wherein the radio frame comprises at least three special subframes, and the special subframe is both capable of uplink transmission and downlink transmission, wherein all of the special subframes and uplink subframes in the radio frame carry a sounding signal, wherein the radio frame comprises 10 subframes from the first to the tenth, and the second and the seventh subframes in the radio frame are the special subframes, wherein the third, the fourth, the fifth, the eighth, the ninth, and the tenth subframes in the radio frame are uplink subframes, and the first or the sixth subframe is the special subframe or the first and the sixth subframe are the special subframes; or the third, the fourth, the eighth, and the ninth subframes in the radio frame are uplink subframes, and at least one of the first, the fifth, the sixth, or the tenth subframe is the special subframe; or the third and the eighth subframes in the radio frame are uplink subframes, and at least one of the first, the fourth, the fifth, the sixth, the ninth, or the tenth subframe is the special subframe; or the third, the fourth, the fifth, the eighth, and the ninth subframes in the radio frame are uplink subframes, and at least one of the first, the sixth, or the tenth subframe is the special subframe. determining radio frame configuration information; and performing uplink transmission of a radio frame according to the radio frame configuration information, wherein the radio frame comprises at least three special subframes, and the special subframe is both capable of uplink transmission and downlink transmission, wherein all of the special subframes and uplink subframes in the radio frame carry a sounding signal, wherein the radio frame comprises 10 subframes from the first to the tenth, and the second and the seventh subframes in the radio frame are the special subframes, wherein the third, the fourth, the fifth, the eighth, the ninth, and the tenth subframes in the radio frame are uplink subframes, and the first or the sixth subframe is the special subframe or the first and the sixth subframe are the special subframes; or the third, the fourth, the eighth, and the ninth subframes in the radio frame are uplink subframes, and at least one of the first, the fifth, the sixth, or the tenth subframe is the special subframe; or the third and the eighth subframes in the radio frame are uplink subframes, and at least one of the first, the fourth, the fifth, the sixth, the ninth, or the tenth subframe is the special subframe; or the third, the fourth, the fifth, the eighth, and the ninth subframes in the radio frame are uplink subframes, and at least one of the first, the sixth, or the tenth subframe is the special subframe.
A steering column for a motor vehicle, comprising an actuating unit which receives a steering shaft that is rotatable about a rotation axis , wherein the actuating unit by way of a first steering-wheel proximal end region is disposed on a holding unit so as to be pivotable by means of a first motorized drive , wherein the actuating unit is coupled to the holding unit by way of a pivot lever , wherein the pivot lever is articulated so as to be pivotable on the actuating unit and on the holding unit characterized in that the actuating unit in the second end region thereof that is opposite the first end region is provided with an elastic bracket element which is provided for fastening to the vehicle chassis and on account of an elastic deformation permits pivoting of the actuating unit about a pivot axis as well as displacing the actuating unit in the direction of the rotation axis .
A method for identifying a flow limitation in a single patient respiratory cycle, the method comprising: receiving a patient gas delivery signal from one or more sensors in pneumatic communication with a ventilation source and a ventilation interface to a patient airway, the patient gas delivery signal being representative of a measure of therapeutic gas being delivered to the patient airway at a given time instant and spanning the single patient respiratory cycle; generating a second derivative of the patient gas delivery signal; counting a total number of zero crossings in the generated second derivative of the patient gas delivery signal within a single inspiration phase of the patient gas delivery signal, the zero crossings of the second derivative of the patient gas delivery signal being representative of an inflection change in the patient gas delivery signal; and generating a flow limitation indication corresponding to the identified gas delivery limitation if the total of the zero crossings in the generated second derivative of the patient gas delivery signal within the single inspiration phase is at least two. receiving a patient gas delivery signal from one or more sensors in pneumatic communication with a ventilation source and a ventilation interface to a patient airway, the patient gas delivery signal being representative of a measure of therapeutic gas being delivered to the patient airway at a given time instant and spanning the single patient respiratory cycle; generating a second derivative of the patient gas delivery signal; counting a total number of zero crossings in the generated second derivative of the patient gas delivery signal within a single inspiration phase of the patient gas delivery signal, the zero crossings of the second derivative of the patient gas delivery signal being representative of an inflection change in the patient gas delivery signal; and generating a flow limitation indication corresponding to the identified gas delivery limitation if the total of the zero crossings in the generated second derivative of the patient gas delivery signal within the single inspiration phase is at least two.
Method for preparing a water soluble prepolymer, in particular for the use as a binding agent, by reacting a) 10 to 60 weight percent of a reduced monosaccharide, oligosaccharide or polysaccharide with b) 10 to 50 weight percent of a functionalized amino compound that is a primary or a secondary amine and that has additionally at least one hydroxyl or carboxyl group for preparing a first intermediate product and subsequently reacting of the first intermediate product with c) 1 to 10 weight percent of an aromatic anhydride compound obtained from an aromatic polycarboxylic acid with at least 2 carboxyl groups in adjacent 1,2 position on the aromatic nucleus and d) 10 to 25 weight percent of an aliphatic anhydride compound obtained from an aliphatic polycarboxylic acid with at least 2 carboxyl groups in adjacent 1,2 or 1,3 position for preparing a second intermediate product in water and reacting thereof with e) 1 to 15 weight percent of an oxirane compound with an open-chain, a branched or a cyclic structure and a carbon network with 2 to 16 carbon atoms that contains at least one and maximally 2 epoxy groups, wherein the quantities of substances a) to e) add up to 100 weight percent. a) 10 to 60 weight percent of a reduced monosaccharide, oligosaccharide or polysaccharide with b) 10 to 50 weight percent of a functionalized amino compound that is a primary or a secondary amine and that has additionally at least one hydroxyl or carboxyl group for preparing a first intermediate product and subsequently reacting of the first intermediate product with c) 1 to 10 weight percent of an aromatic anhydride compound obtained from an aromatic polycarboxylic acid with at least 2 carboxyl groups in adjacent 1,2 position on the aromatic nucleus and d) 10 to 25 weight percent of an aliphatic anhydride compound obtained from an aliphatic polycarboxylic acid with at least 2 carboxyl groups in adjacent 1,2 or 1,3 position for preparing a second intermediate product in water and reacting thereof with e) 1 to 15 weight percent of an oxirane compound with an open-chain, a branched or a cyclic structure and a carbon network with 2 to 16 carbon atoms that contains at least one and maximally 2 epoxy groups, wherein the quantities of substances a) to e) add up to 100 weight percent.
A computer-implemented method for managing distributed directory data, the method comprising: obtaining , by a security server from a directory service , client directory data associated with a client; providing , by the security server , the obtained client directory data to a computing device associated with the client for caching on the computing device; identifying , by the security server , a request from the client to access or take an action on a secure target resource ; in response to identifying the request from the client, receiving , by the security server from the computing device , the client directory data that was cached on the computing device , the client directory data indicating which actions the computing device may take on the secure target resource; and evaluating , by the security server , the request based on the received client directory data that was cached on the computing device to determine whether the client is permitted to access or take the action on the secure target resource in response to the request. obtaining , by a security server from a directory service , client directory data associated with a client; providing , by the security server , the obtained client directory data to a computing device associated with the client for caching on the computing device; identifying , by the security server , a request from the client to access or take an action on a secure target resource ; in response to identifying the request from the client, receiving , by the security server from the computing device , the client directory data that was cached on the computing device , the client directory data indicating which actions the computing device may take on the secure target resource; and evaluating , by the security server , the request based on the received client directory data that was cached on the computing device to determine whether the client is permitted to access or take the action on the secure target resource in response to the request.