mhurhangee/ep-ind-claims huggingface dataset:
A clip device (20, 120) for engaging tissue, the clip device comprising: a first arm (21 a, 121 a) having proximal and distal ends; a second arm (21 b, 121b) having proximal and distal ends; a proximal base member contacting the proximal ends of the first and second arms; and a spring member having proximal and distal ends, wherein the spring member is disposed to surround at least a portion of the first and second arms, and wherein the proximal end of the spring extends from the proximal base member, wherein the clip device comprises an open state when the spring member is in a compressed state in which the distal end of the spring member is spaced apart from the distal ends of the first and second arms, and wherein the distal ends of the first and second arms tend to be spaced apart from each other when the clip device is in the open state, and wherein the clip device comprises a closed state when the spring member is in a relaxed state in which the spring member is biased to extend distally towards the distal ends of the first and second arms, wherein the distal ends of the first and second arms are adjacent to each other when the clip device is in the closed state. a first arm (21 a, 121 a) having proximal and distal ends; a second arm (21 b, 121b) having proximal and distal ends; a proximal base member contacting the proximal ends of the first and second arms; and a spring member having proximal and distal ends, wherein the spring member is disposed to surround at least a portion of the first and second arms, and wherein the proximal end of the spring extends from the proximal base member, wherein the clip device comprises an open state when the spring member is in a compressed state in which the distal end of the spring member is spaced apart from the distal ends of the first and second arms, and wherein the distal ends of the first and second arms tend to be spaced apart from each other when the clip device is in the open state, and wherein the clip device comprises a closed state when the spring member is in a relaxed state in which the spring member is biased to extend distally towards the distal ends of the first and second arms, wherein the distal ends of the first and second arms are adjacent to each other when the clip device is in the closed state.
Transparent, chemically temperable or chemically tempered glass ceramic with keatite as the main crystal phase, which has a transmittance of τ vis ≥ 85% at a thickness of 0.7 mm, low haze expressed by haze ≤ 5, preferably < 2, and a crystal phase content of at least 80% by weight of keatite solid solution, preferably at least 90% by weight, particularly preferably at least 95% by weight, based on all crystal phases in the glass ceramic, and which contains at least 2% by weight of Li 2 O and is essentially free of P 2 O 5, and in which the ratio of Al 2 O 3 to SiO 2, both in percent by weight, is Al 2 O 3 /SiO 2 < 0.33.
A wearable device comprising: a power source; a processor; one or more sensors; a user interface connected to the processor and adapted to interact with the wearer and to provide information to the wearer; a network interface configured to provide a network connection between the device and a server; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution by the processor, cause the device to: gather, via the one or more sensor data necessary to determine the activity pattern of the wearer over time; provide the gathered data to said server via said network interface for processing to create or update behavioral rules, including identifying one or more patterns, for the wearer, said behavioral rules being created and updated using historical wearer data including location mapping of the wearer over time, identification of a home area, location boundaries, sleep/wake cycles of the wearer, location time comparisons over different time periods, and sensor measurements; receive the behavioral rules, including one or more patterns, from the server; and query the wearer when an aberration or break in the one or more patterns is detected. a power source; a processor; one or more sensors; a user interface connected to the processor and adapted to interact with the wearer and to provide information to the wearer; a network interface configured to provide a network connection between the device and a server; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution by the processor, cause the device to: gather, via the one or more sensor data necessary to determine the activity pattern of the wearer over time; provide the gathered data to said server via said network interface for processing to create or update behavioral rules, including identifying one or more patterns, for the wearer, said behavioral rules being created and updated using historical wearer data including location mapping of the wearer over time, identification of a home area, location boundaries, sleep/wake cycles of the wearer, location time comparisons over different time periods, and sensor measurements; receive the behavioral rules, including one or more patterns, from the server; and query the wearer when an aberration or break in the one or more patterns is detected. gather, via the one or more sensor data necessary to determine the activity pattern of the wearer over time; provide the gathered data to said server via said network interface for processing to create or update behavioral rules, including identifying one or more patterns, for the wearer, said behavioral rules being created and updated using historical wearer data including location mapping of the wearer over time, identification of a home area, location boundaries, sleep/wake cycles of the wearer, location time comparisons over different time periods, and sensor measurements; receive the behavioral rules, including one or more patterns, from the server; and query the wearer when an aberration or break in the one or more patterns is detected.
A heating element (10, 20, 30, 40, 201) for an aerosol-generating device, the heating element (10, 20, 30, 40, 201) comprising: a first electrically resistive heating filament, and a support substrate on which the first electrically resistive heating filament is provided, the support substrate comprising a first carbon-fibre support layer comprising a carbon-fibre material. a first electrically resistive heating filament, and a support substrate on which the first electrically resistive heating filament is provided,
A high material seal pulper with a screen and a displacement spiral wherein in various regions the screen has openings with different opening sizes, characterized in that the openings form a connection between a displacement chamber and chambers (10, 13), and the regions are connected with various chambers via the openings, wherein the chambers have respectively at least one closable outlet.
A network resource balancing method, characterized in that the method comprises the steps of: receiving, by a balancing module, identifier information and load information of multiple virtual machines that are sent by a controller and identifier information, which is sent by the controller, of a domain that comprises the multiple virtual machines, wherein a correspondence exists between the identifier information of the virtual machines and the identifier information of the domain comprising the multiple virtual machines; and receiving, by the balancing module, an access request packet, determining, according to the identifier information that is of the domain comprising the virtual machines and that is carried in the access request packet, the identifier information of the multiple virtual machines in the domain and the load information of the multiple virtual machines in the domain, wherein the identifier information of the multiple virtual machines in the domain is corresponding to the identifier information that is of the domain and that is carried in the access request packet, selecting a virtual machine according to the load information of the multiple virtual machines, and sending the access request packet to the selected virtual machine according to identifier information of the selected virtual machine. receiving, by a balancing module, identifier information and load information of multiple virtual machines that are sent by a controller and identifier information, which is sent by the controller, of a domain that comprises the multiple virtual machines, wherein a correspondence exists between the identifier information of the virtual machines and the identifier information of the domain comprising the multiple virtual machines; and receiving, by the balancing module, an access request packet, determining, according to the identifier information that is of the domain comprising the virtual machines and that is carried in the access request packet, the identifier information of the multiple virtual machines in the domain and the load information of the multiple virtual machines in the domain, wherein the identifier information of the multiple virtual machines in the domain is corresponding to the identifier information that is of the domain and that is carried in the access request packet, selecting a virtual machine according to the load information of the multiple virtual machines, and sending the access request packet to the selected virtual machine according to identifier information of the selected virtual machine.
A drive system for a door component of a door system of a public passenger transport vehicle, comprising - a drive for the door component, - a sensor unit that scans the door component three-dimensionally in a contactless manner and determines location data regarding its movement and respective position, and - an evaluation unit that determines the respective position of the door component from the location data obtained by the sensor unit and controls the drive of the door component based on the determined position thereof. - a drive for the door component, - a sensor unit that scans the door component three-dimensionally in a contactless manner and determines location data regarding its movement and respective position, and - an evaluation unit that determines the respective position of the door component from the location data obtained by the sensor unit and controls the drive of the door component based on the determined position thereof.
A switching power supply with an input terminal and an output terminal, comprising: a power stage circuit coupled between the input terminal and the output terminal; a current sensor coupled to sense the power stage circuit, and to provide a current sensing value; a current monitor coupled to the current sensor to provide a sensing value corresponding to the current sensing value; a gain module coupled to the current monitor to provide a gain value, and to provide a first feedback value from the sensing value through the gain value; characterized by further comprising a voltage divider coupled to the output terminal to provide a second feedback value by voltage-dividing an output voltage of the output terminal; a feedback circuit coupled to the current monitor and the voltage divider circuit to provide a feedback signal based on a summed feedback value, wherein the summed feedback value is a sum of the first feedback value and the second feedback value; and a switching power coupled between the feedback circuit and the power stage circuit to control power conversion of the power stage circuit based on the feedback signal. a power stage circuit coupled between the input terminal and the output terminal; a current sensor coupled to sense the power stage circuit, and to provide a current sensing value; a current monitor coupled to the current sensor to provide a sensing value corresponding to the current sensing value; a gain module coupled to the current monitor to provide a gain value, and to provide a first feedback value from the sensing value through the gain value; characterized by further comprising a voltage divider coupled to the output terminal to provide a second feedback value by voltage-dividing an output voltage of the output terminal; a feedback circuit coupled to the current monitor and the voltage divider circuit to provide a feedback signal based on a summed feedback value, wherein the summed feedback value is a sum of the first feedback value and the second feedback value; and a switching power coupled between the feedback circuit and the power stage circuit to control power conversion of the power stage circuit based on the feedback signal.
Device for measuring a distance in a construction machine with a caterpillar chain drive, comprising: at least one contactless sensor (118, 118a, 118b, 120) for being arranged at a chassis of the construction machine such that the contactless sensor (118, 118a, 118b, 120) is directed to a caterpillar chain of the caterpillar chain drive of the construction machine; and an evaluation unit (122, 127) connected to the contactless sensor (118, 118a, 118b, 120) and operative to determine a distance covered by the construction machine based on the signals received by the contactless sensor (118, 118a, 118b, 120), characterized in that the contactless sensor includes at least two sensor heads (118a, 118b) in a casing. at least one contactless sensor (118, 118a, 118b, 120) for being arranged at a chassis of the construction machine such that the contactless sensor (118, 118a, 118b, 120) is directed to a caterpillar chain of the caterpillar chain drive of the construction machine; and an evaluation unit (122, 127) connected to the contactless sensor (118, 118a, 118b, 120) and operative to determine a distance covered by the construction machine based on the signals received by the contactless sensor (118, 118a, 118b, 120), characterized in that the contactless sensor includes at least two sensor heads (118a, 118b) in a casing.
A method for determining the temperature of an object with inductive properties and which is inductively heated by way of an electrical device, wherein a rest element which forms a rest surface for the object is arranged above the electric device, wherein the temperature of the object is determined by way of a measuring device by way of measuring a resonant frequency of an induction measuring resonant circuit interacting with the object, wherein the resonant frequency is dependent on the temperature-dependent permeability of the object, and the temperature of the object is computed from the measured resonant frequency, wherein the resonant frequency is in a physical relation with the temperature of the object by way of a mathematical function, and wherein the mathematical function comprises the temperature and the resonant frequency as variables, and the temperature of the rest element is measured by way of at least one temperature sensor which is attached on the rest element, and the mathematic function which defines the relation between the temperature and the resonant frequency of the object is determined by temperature readings of the temperature sensor, by way of at least two absolute temperature calibration values of the object being determined at different resonant frequencies in each case, so that the temperature of the object can be determined from the measured resonant frequencies by way of the relation determined from the temperature readings, characterised in that at least one temperature calibration value of the object is determined by the following steps: - heating the object to a higher temperature level and keeping the temperature constant at this level; - measuring the temperature on the rest element at least once, by way of the at least one temperature sensor, at a point in time, at which the temperature is held constant at the higher temperature level; - computing the temperature calibration value, wherein a linear, time-invariant system (LTI system) forms the basis of the computation, by way of which the temperature calibration value as the output variable of a transfer function of the LTI system is computed from at least one temperature value measured by the temperature sensor on the rest element, as the input variable of the transfer function. - heating the object to a higher temperature level and keeping the temperature constant at this level; - measuring the temperature on the rest element at least once, by way of the at least one temperature sensor, at a point in time, at which the temperature is held constant at the higher temperature level; - computing the temperature calibration value, wherein a linear, time-invariant system (LTI system) forms the basis of the computation, by way of which the temperature calibration value as the output variable of a transfer function of the LTI system is computed from at least one temperature value measured by the temperature sensor on the rest element, as the input variable of the transfer function.
A method of managing the braking of an aircraft having a plurality of groups of brakes, each brake comprising friction elements, the method comprising the following steps for each one of the groups (12, 13) of brakes: · estimating an energy level (ΔE) to be dissipated by the brakes of the group during the forthcoming braking; and · estimating individual braking setpoints (F i) for each of the brakes of the group so that the individual braking setpoints make it possible, at least under normal operating conditions of the brakes, to implement braking that dissipates said energy level, the individual braking setpoints also being determined so as to satisfy at least one other given operating objective. · estimating an energy level (ΔE) to be dissipated by the brakes of the group during the forthcoming braking; and · estimating individual braking setpoints (F i) for each of the brakes of the group so that the individual braking setpoints make it possible, at least under normal operating conditions of the brakes, to implement braking that dissipates said energy level, the individual braking setpoints also being determined so as to satisfy at least one other given operating objective.
Multifunctional high-current circuit board, comprising a. a current-conducting layer which has multiple thick plies (13, 14, 15, 16) and which serves for conducting electrical current, b. a switching layer which has at least one power switch for the switching of a consumer, c. an actuation layer which has at least one actuation element and which serves for the actuation of the at least one power switch, d. at least one shielding element (13, 16) for shielding the current-conducting layer with respect to the actuation layer and with respect to the switching layer, characterized in that the at least one current-feed thick ply (14, 15) and current return thick ply (13, 16) have, in each case along a circuit-board-internal current-conducting direction (32, 34), a thick ply cross-sectional area which varies at least in sections. a. a current-conducting layer which has multiple thick plies (13, 14, 15, 16) and which serves for conducting electrical current, b. a switching layer which has at least one power switch for the switching of a consumer, c. an actuation layer which has at least one actuation element and which serves for the actuation of the at least one power switch, d. at least one shielding element (13, 16) for shielding the current-conducting layer with respect to the actuation layer and with respect to the switching layer,
A method for configuring transmission configuration indication, TCI, the method is performed by a base station and comprises: transmitting (101, 302), after establishing a radio resource control, RRC, connection with a terminal, an activation signaling to the terminal, wherein the activation signaling is to activate all TCI states of a target TCI group, and the target TCI group comprises a plurality of TCI states; and transmitting (102, 306) a configuration signaling to the terminal, wherein the configuration signaling is to instruct the terminal to receive a physical downlink channel scheduled by the configuration signaling through a target receiving beam, the physical downlink channel is a physical downlink control channel, PDCCH, and the configuration signaling is a Downlink Control Information, DCI, signaling, the target receiving beam is a receiving beam for a reference signal corresponding to a target TCI state, and the target TCI state is a TCI state of the target TCI group indicated by the configuration signaling. transmitting (101, 302), after establishing a radio resource control, RRC, connection with a terminal, an activation signaling to the terminal, wherein the activation signaling is to activate all TCI states of a target TCI group, and the target TCI group comprises a plurality of TCI states; and transmitting (102, 306) a configuration signaling to the terminal, wherein the configuration signaling is to instruct the terminal to receive a physical downlink channel scheduled by the configuration signaling through a target receiving beam, the physical downlink channel is a physical downlink control channel, PDCCH, and the configuration signaling is a Downlink Control Information, DCI, signaling, the target receiving beam is a receiving beam for a reference signal corresponding to a target TCI state, and the target TCI state is a TCI state of the target TCI group indicated by the configuration signaling.
A turbomachine assembly comprising: - a shaft, - a radial gas expander supported on the shaft between at least one first bearing and at least a second bearing, - a compressor supported on the shaft in overhung position adjacent to one or the other of said first and second bearings (11, 12), - said radial gas expander including a plurality of movable guide vanes (5a,b). - a shaft, - a radial gas expander supported on the shaft between at least one first bearing and at least a second bearing, - a compressor supported on the shaft in overhung position adjacent to one or the other of said first and second bearings (11, 12), - said radial gas expander including a plurality of movable guide vanes (5a,b).
Goal frame system (100; 100'; 100") for a goal in a ball game, which comprises at least one frame profile (10; 10"; 210; 210') with a profile groove (20; 220), which opens toward an outer surface (11; 11') and has an opening width and in or on which at least one goal net with net meshes and a reinforced edging cord can be fastened and which is undercut by bordering edges on both sides (12, 13; 12', 13'; 213; 213'), and also a securing profile (30; 30"; 230'), which can be inserted into the profile groove (20; 220), which comprises a main channel, which continues on at least one side under one of the lateral bordering edges (13; 13") in a secondary channel, wherein the securing profile (30; 30"; 230') has a cross-sectional height that is smaller than the opening width of the profile groove (20; 220), and has a cross-sectional width that is greater than the opening width of the profile groove (20; 220), so that the securing profile (30; 30"; 230') can be turned at least between a fitting position, in which it can be inserted with its cross-sectional height into the profile groove (20; 220) between the bordering edges (12, 13; 12', 13'; 213; 213') or removed from it, and at least one locking position, in which it is retained with its cross-sectional width within the profile groove (20; 220) at the bordering edges (12, 13; 12', 13'; 213; 213'); wherein the securing profile (30; 30"; 230') has an inner longitudinal channel (32; 32"), which is intended for receiving the edging cord and opens outwards via an opening slot (31; 31") in a sector of the cross section that lies between the greatest cross-sectional width and the smallest cross-sectional height; wherein, in the locking position, the angular position of the securing profile (30; 30"; 230') can be fixed with interlocking engagement in the frame profile by means of at least one securing element and characterized in that in the locking position, the opening width of the opening slot (31; 31") on the securing profile (30; 30"; 230') is reduced by a bordering edge (12; 13; 12', 13') of the goal frame profile (10; 10') to a gap size that is smaller than the diameter of an edging cord of a goal net.