mhurhangee/ep-ind-claims huggingface dataset:
Method for processing a longitudinal acceleration signal from a longitudinal acceleration sensor in a vehicle with a lifting system for lifting a front part of the vehicle, wherein the method comprises: generating a vehicle position signal by means of an electronic control unit of the lifting system that controls or induces a change in position, wherein the vehicle position signal indicates a temporary change in position of a vehicle longitudinal axis (ax) relative to an underlying surface due to targeted lifting of a front part of the vehicle using the lifting system relative to a contact area of wheels of the vehicle on the underlying surface; providing the vehicle position signal on the CAN bus of the vehicle; detecting the vehicle position signal provided on the CAN bus; and correcting the longitudinal acceleration signal taking into account the temporary change in position based on the detected vehicle position signal, wherein, when correcting the longitudinal acceleration signal, an angle by which the vehicle longitudinal axis (ax) is temporarily displaced due to the targeted lifting of the front part of the vehicle using the lifting system is taken into account, wherein a magnitude of the height by which the front part of the vehicle is temporarily lifted is determined, and the angle by which the vehicle longitudinal axis (ax) is temporarily displaced due to the targeted lifting of the front part of the vehicle is calculated from the magnitude of the height together with other vehicle data, in particular a wheel distance. generating a vehicle position signal by means of an electronic control unit of the lifting system that controls or induces a change in position, wherein the vehicle position signal indicates a temporary change in position of a vehicle longitudinal axis (ax) relative to an underlying surface due to targeted lifting of a front part of the vehicle using the lifting system relative to a contact area of wheels of the vehicle on the underlying surface; providing the vehicle position signal on the CAN bus of the vehicle; detecting the vehicle position signal provided on the CAN bus; and correcting the longitudinal acceleration signal taking into account the temporary change in position based on the detected vehicle position signal, wherein, when correcting the longitudinal acceleration signal, an angle by which the vehicle longitudinal axis (ax) is temporarily displaced due to the targeted lifting of the front part of the vehicle using the lifting system is taken into account, wherein a magnitude of the height by which the front part of the vehicle is temporarily lifted is determined, and the angle by which the vehicle longitudinal axis (ax) is temporarily displaced due to the targeted lifting of the front part of the vehicle is calculated from the magnitude of the height together with other vehicle data, in particular a wheel distance.
A method of controlling the ventilation of one or more room spaces, wherein the supply air and exhaust air dampers of one or more room spaces are adjusted in order to achieve a desired ventilation level, by taking into account any changes in the conditions and/or occupancy of the one or more room spaces, and wherein the voltage level of the control signals of the actuator of the supply air and exhaust air dampers is set by means of a level controller having analogous control signals (2, 3) for three or more ventilation levels, resulting in the desired ventilation level of the one or more room spaces, characterized in that each (4 - 9) of the voltage levels of the analogous control signals (2, 3) are individually adjusted, manually from a potentiometer, wherein a given voltage acts on the opening angle of the blade of the dampers to make it correspond to a given amount of air.
A cap assembly for a secondary battery, comprising: a cap plate, wherein the cap plate comprises an electrode lead-out hole; an electrode terminal, wherein the electrode terminal comprises a terminal board, the terminal board is located at a side of the cap plate and covers the electrode lead-out hole; a fixing member, wherein the fixing member at least partially surrounds the terminal board to fix the terminal board to the fixing member; a connection member, wherein the connection member is separated from the electrode terminal by the fixing member, and the connection member is connected with the cap plate; the connection member comprises a main body, the main body is provided with a first groove formed downwardly along a top of the main body; wherein a part of the fixing member is located in the first groove; wherein the main body comprises a cylinder-like base portion and a ring-like first flange; the first flange extends from the base portion in a direction toward the terminal board; the first groove penetrates the first flange. a cap plate, wherein the cap plate comprises an electrode lead-out hole; an electrode terminal, wherein the electrode terminal comprises a terminal board, the terminal board is located at a side of the cap plate and covers the electrode lead-out hole; a fixing member, wherein the fixing member at least partially surrounds the terminal board to fix the terminal board to the fixing member; a connection member, wherein the connection member is separated from the electrode terminal by the fixing member, and the connection member is connected with the cap plate; the connection member comprises a main body, the main body is provided with a first groove formed downwardly along a top of the main body; wherein a part of the fixing member is located in the first groove; wherein the main body comprises a cylinder-like base portion and a ring-like first flange; the first flange extends from the base portion in a direction toward the terminal board; the first groove penetrates the first flange.
Coordination system for a handling device having a plurality of kinematic chains, wherein each of the kinematic chains can be moved in a working space, wherein at least two of the working spaces have an overlap, wherein the kinematic chains are designed to perform a work movement based on a work command, having a trajectory planning module and a control module, wherein the control module is designed to control the kinematic chains to perform the work movement based on trajectory data, wherein the trajectory planning module is designed to determine the trajectory data for performing the work movement and to make the trajectory data available to the control module, wherein the trajectory planning module is designed, if there is a further work command while performing the work movement, to replan the trajectory data into replanned trajectory data and to make them available to the control module, characterized in that the trajectory planning module is designed to determine a minimum time trajectory as preliminary trajectory data for each of the kinematic chains, wherein the coordination system has a coordination module, wherein the coordination module is designed to reparameterize the preliminary trajectory data based on the minimum time trajectory into the trajectory data, with the result that work movements can be carried out without collisions and parts of the trajectory are carried out in an accelerated or decelerated manner. wherein each of the kinematic chains can be moved in a working space, wherein at least two of the working spaces have an overlap, wherein the kinematic chains are designed to perform a work movement based on a work command, having a trajectory planning module and a control module, wherein the control module is designed to control the kinematic chains to perform the work movement based on trajectory data, wherein the trajectory planning module is designed to determine the trajectory data for performing the work movement and to make the trajectory data available to the control module, wherein the trajectory planning module is designed, if there is a further work command while performing the work movement, to replan the trajectory data into replanned trajectory data and to make them available to the control module, characterized in that the trajectory planning module is designed to determine a minimum time trajectory as preliminary trajectory data for each of the kinematic chains, wherein the coordination system has a coordination module, wherein the coordination module is designed to reparameterize the preliminary trajectory data based on the minimum time trajectory into the trajectory data, with the result that work movements can be carried out without collisions and parts of the trajectory are carried out in an accelerated or decelerated manner.
Device for universal fail-safe adaptation of at least one signal box, having at least one block mechanism of any design for securing the block sections of the free routes belonging to this signal box, to at least one adjacent signal box, wherein the existing and/or approved transmission units can be used, characterised in that the adaptation circuit consists of a) at least one system of programmable logic controllers and b) an available reliable transmission technology via which the PLC system and the participating signal boxes exchange pieces of information in a standardised manner, wherein the PLC system replaces the relevant relay circuits of the block groups and therein exactly replicates the functions of the block logic of at least the one existing signal box on the site to be adapted to the new signal box, wherein the relay circuits of the block groups relevant for the function of the block logic are programmed into the PLC system such that it assumes the functions of the block logic. a) at least one system of programmable logic controllers and b) an available reliable transmission technology via which the PLC system and the participating signal boxes exchange pieces of information in a standardised manner,
A support garment testing system comprising: a torso form having a first breast structure and a second breast structure; a motion platform, the torso form secured to the motion platform characterized by a sensor positioned within one or more of the first breast structure and the second breast structure, wherein the sensor is a motion tracking sensor.
Optoelectronic semiconductor chip, having - a first semiconductor layer sequence, which comprises a multiplicity of microdiodes, and - a second semiconductor layer sequence, which comprises an active region, wherein - the first semiconductor layer sequence and the second semiconductor layer sequence are based on a nitride compound semiconductor material, - the first semiconductor layer sequence is placed in front of the second semiconductor layer sequence in the growth direction, - the microdiodes form ESD protection for the active region, and - the microdiodes comprise a pn junction, - the active region comprises at least one pn junction, - the pn junction of the microdiodes and the pn junction of the active region being biased in the same direction, - the pn junction of the microdiodes having a lower breakdown voltage in the reverse direction than the pn junction of the active region, and - at least 75% of the microdiodes having a breakdown voltage in the reverse direction which lies in a range of the ±25% around an average value of the breakdown voltages of the microdiodes. - a first semiconductor layer sequence, which comprises a multiplicity of microdiodes, and - a second semiconductor layer sequence, which comprises an active region, wherein - the first semiconductor layer sequence and the second semiconductor layer sequence are based on a nitride compound semiconductor material, - the first semiconductor layer sequence is placed in front of the second semiconductor layer sequence in the growth direction, - the microdiodes form ESD protection for the active region, and - the microdiodes comprise a pn junction, - the active region comprises at least one pn junction, - the pn junction of the microdiodes and the pn junction of the active region being biased in the same direction, - the pn junction of the microdiodes having a lower breakdown voltage in the reverse direction than the pn junction of the active region, and - at least 75% of the microdiodes having a breakdown voltage in the reverse direction which lies in a range of the ±25% around an average value of the breakdown voltages of the microdiodes.
A method of transmitting, by a user equipment, UE, a physical uplink shared channel, PUSCH, through a frequency hopping in a wireless communication system, the method comprising: receiving uplink, UL,-downlink, DL, configuration information from a base station; and repeatedly transmitting, to the base station, the PUSCH through the frequency hopping based on symbols within a slot, wherein each of the symbols is used for each of repetitions of the transmission of the PUSCH, wherein, among the symbols, remaining symbols other than one or more invalid symbols based on the UL-DL configuration information are used for the transmission of the PUSCH, wherein, for each of the repetitions, the frequency hopping is performed based on whether each of the repetitions is even-numbered repetition or odd-numbered repetition without considering whether a symbol for the even-numbered repetition or the odd-numbered repetition is invalid, wherein a frequency hopping offset is indicated among a set of frequency hopping offsets configured via semi-static signaling, wherein the starting RB of frequency hopped resources is obtained by adding said frequency offset to the starting RB at the first hop RB_start; wherein, when said frequency hopped resources exceed a range of a bandwidth part, BWP, determining by the UE a RB index for the transmission of the PUSCH as a value obtained by subtracting a number of RBs of the BWP from the RB index of each frequency resource exceeding the range of the BWP. receiving uplink, UL,-downlink, DL, configuration information from a base station; and repeatedly transmitting, to the base station, the PUSCH through the frequency hopping based on symbols within a slot, wherein each of the symbols is used for each of repetitions of the transmission of the PUSCH, wherein, among the symbols, remaining symbols other than one or more invalid symbols based on the UL-DL configuration information are used for the transmission of the PUSCH, wherein, for each of the repetitions, the frequency hopping is performed based on whether each of the repetitions is even-numbered repetition or odd-numbered repetition without considering whether a symbol for the even-numbered repetition or the odd-numbered repetition is invalid, wherein a frequency hopping offset is indicated among a set of frequency hopping offsets configured via semi-static signaling, wherein the starting RB of frequency hopped resources is obtained by adding said frequency offset to the starting RB at the first hop RB_start; wherein, when said frequency hopped resources exceed a range of a bandwidth part, BWP, determining by the UE a RB index for the transmission of the PUSCH as a value obtained by subtracting a number of RBs of the BWP from the RB index of each frequency resource exceeding the range of the BWP.
An apparatus for application of surgical clips to body tissue comprising: a handle portion; a body extending distally from said handle portion and defining a longitudinal axis; a plurality of surgical clips disposed within said body; a jaw assembly mounted adjacent a distal end portion of said body, said jaw assembly further comprising first and second jaw portions movable between a spaced apart and an approximated position; a wedge plate longitudinally movable between said first and said second jaw portions; a clip pusher configured to individually distally advance a surgical clip to said jaw assembly while said jaw portions are in said spaced apart position; an actuator at least partially disposed within said body and longitudinally movable in response to actuation of said handle portion; a jaw closure member positioned adjacent said first and said second jaw portions to move said jaw portions to said approximated position; wherein said actuator longitudinally advances said wedge plate a predetermined distance to a distal most position; wherein said wedge plate has an end being disposed between said first and said second jaw portions at said distal most position, said wedge plate end configured to maintain said jaw assembly in said spaced apart position during loading of said surgical clip, said wedge plate end reducing torque and external forces on said jaw assembly during said loading; and wherein said actuator further actuates a signal device, said signal device providing an identification that at least one of said plurality of clips has fired. a handle portion; a body extending distally from said handle portion and defining a longitudinal axis; a plurality of surgical clips disposed within said body; a jaw assembly mounted adjacent a distal end portion of said body, said jaw assembly further comprising first and second jaw portions movable between a spaced apart and an approximated position; a wedge plate longitudinally movable between said first and said second jaw portions; a clip pusher configured to individually distally advance a surgical clip to said jaw assembly while said jaw portions are in said spaced apart position; an actuator at least partially disposed within said body and longitudinally movable in response to actuation of said handle portion; a jaw closure member positioned adjacent said first and said second jaw portions to move said jaw portions to said approximated position; wherein said actuator longitudinally advances said wedge plate a predetermined distance to a distal most position; wherein said wedge plate has an end being disposed between said first and said second jaw portions at said distal most position, said wedge plate end configured to maintain said jaw assembly in said spaced apart position during loading of said surgical clip, said wedge plate end reducing torque and external forces on said jaw assembly during said loading; and wherein said actuator further actuates a signal device, said signal device providing an identification that at least one of said plurality of clips has fired.
A soil aeration apparatus comprising: an aeration rotor comprising a carrier (52, 54) and a plurality of aeration tines supported by the carrier (52, 54), wherein the rotor is configured to drive the aeration tines to penetrate soil and remove soil plugs from the soil when the aeration rotor is rotated; and a shield defining a rotor cavity and at least partially surrounding the aeration rotor positioned in the rotor cavity, wherein the shield defines at least one tine port (38, 78) sized and positioned to allow for ingress and egress of the aeration tines during rotation of the rotor, and wherein the shield defines a plurality of sifting ports sized small enough to contain soil plugs within the rotor cavity and large enough to allow soil particles from broken soil plugs to pass through the sifting ports out of the rotor cavity.
A computer-implemented method of providing URL-based anti-phishing services, comprising: identifying a plurality of URLs that lack a reliable phishing-related reputation; queueing the URLs in a first-in-first-out full analysis queue, the queue for ordering URLs for full analysis; periodically identifying within the full analysis queue a batch of URLs that have not received an initial analysis; subjecting a URL of the batch to an initial analysis, the initial analysis being less thorough than the full analysis, wherein the initial analysis comprises comparing a web page of the URL to a web page of a known phishing target; and according to the initial analysis, determining that the URL is potentially to a phishing website and accelerating the URL's priority in the full analysis queue. identifying a plurality of URLs that lack a reliable phishing-related reputation; queueing the URLs in a first-in-first-out full analysis queue, the queue for ordering URLs for full analysis; periodically identifying within the full analysis queue a batch of URLs that have not received an initial analysis; subjecting a URL of the batch to an initial analysis, the initial analysis being less thorough than the full analysis, wherein the initial analysis comprises comparing a web page of the URL to a web page of a known phishing target; and according to the initial analysis, determining that the URL is potentially to a phishing website and accelerating the URL's priority in the full analysis queue.
A culture support of hematopoietic stem cells (HSCs) and/or hematopoietic progenitors (HPs), comprising: a. a calcium biomaterial; b. osteoclasts; c. endothelial cells; and d. mesenchymatous stem cells (MSCs) and/or osteoblasts and/or adipocytes. a. a calcium biomaterial; b. osteoclasts; c. endothelial cells; and d. mesenchymatous stem cells (MSCs) and/or osteoblasts and/or adipocytes.
A lubricant reservoir comprising: a housing defining a reservoir; a fill port extending through a top of the housing; an actuator movably disposed within the housing and dividing the reservoir into an upper portion and a lower portion, wherein the lower portion is configured to be filled with lubricant; a centerfill tube extending from the fill port, through the actuator, to the lower portion of the reservoir, wherein a first end of the centerfill tube receives lubricant from the fill port and a second end of the centerfill tube provides lubricant to the lower portion; a fill valve disposed on the top surface of the housing, wherein the fill valve includes a lubricant outlet configured to provide lubricant to the first end of the centerfill tube; characterized by a connecting bolt extending through the fill valve and engaging the first end of the centerfill tube; and a stirring assembly rotatably disposed within the lower portion of the reservoir and configured to mix the lubricant within the lower portion; wherein the centerfill tube provides lubricant to the reservoir proximate the stirring assembly. a housing defining a reservoir; a fill port extending through a top of the housing; an actuator movably disposed within the housing and dividing the reservoir into an upper portion and a lower portion, wherein the lower portion is configured to be filled with lubricant; a centerfill tube extending from the fill port, through the actuator, to the lower portion of the reservoir, wherein a first end of the centerfill tube receives lubricant from the fill port and a second end of the centerfill tube provides lubricant to the lower portion; a fill valve disposed on the top surface of the housing, wherein the fill valve includes a lubricant outlet configured to provide lubricant to the first end of the centerfill tube; characterized by a connecting bolt extending through the fill valve and engaging the first end of the centerfill tube; and a stirring assembly rotatably disposed within the lower portion of the reservoir and configured to mix the lubricant within the lower portion; wherein the centerfill tube provides lubricant to the reservoir proximate the stirring assembly.