mhurhangee/ep-ind-claims huggingface dataset:
Method for influencing the control of a motor vehicle having a drive engine and at least one trailer vehicle, wherein the trailer vehicle has an electronic brake system with monitoring of the area to the rear, wherein when an obstacle to rear is approached, a brake control unit of the trailer vehicle can activate brakes of the trailer vehicle and can transmit a request for the activation of brake lights (18, 19) to the motor vehicle, characterized in that the control of the motor vehicle reduces a torque of the drive engine if the monitoring of the area to the rear of the trailer vehicle is active and the trailer vehicle is being braked or transmits a request for the activation of the brake lights (18, 19) to the motor vehicle.
Dental composition selected from a root canal sealing composition and a pulp capping composition, comprising: (a) a radioopaque particulate filler; (b) a monomer having at least two groups selected from primary and secondary amino groups and thiol groups; and (c) a compound polymerizable with the monomer (b) in a step-growth polymerization reaction based on at least two groups selected from the following formula and attached to or connected by one or more organic groups: wherein R 6, R 7 R 8, R 10 and R 11, which are independent from each other, represent a hydrogen atom or a C 1-6 alkyl group. (a) a radioopaque particulate filler; (b) a monomer having at least two groups selected from primary and secondary amino groups and thiol groups; and (c) a compound polymerizable with the monomer (b) in a step-growth polymerization reaction based on at least two groups selected from the following formula and attached to or connected by one or more organic groups: wherein R 6, R 7 R 8, R 10 and R 11, which are independent from each other, represent a hydrogen atom or a C 1-6 alkyl group.
Boxless, horizontally split casting mould comprising at least two mould bodies (1, 2) which are formed from a moulding compound and delimit a casting cavity, wherein two mould bodies (1, 2) lying opposite one another have openings (3, 4) and the openings (3, 4) form a vertical guide line for a rod-like guide element for horizontally aligning the mould bodies (1, 2), characterized in that the openings (3, 4) form a vertical guide line for a connection element for clamping the mould bodies (1, 2), the mould bodies (1, 2) can be clamped via the connection element by means of two counterparts (12, 16) and at least one counterpart is integrated within the opening of a mold body.
A process for making a dry and stable hemostatic composition, said process comprising a) providing a dry granular preparation of gelatin, b) coating the granules in said dry granular preparation with a thrombin solution, thereby obtaining thrombin coated gelatin granules, c) filling said thrombin coated gelatin granules into a final container, d) finishing the final container to a storable pharmaceutical device containing said thrombin coated gelatin granules as a dry and stable hemostatic composition. a) providing a dry granular preparation of gelatin, b) coating the granules in said dry granular preparation with a thrombin solution, thereby obtaining thrombin coated gelatin granules, c) filling said thrombin coated gelatin granules into a final container, d) finishing the final container to a storable pharmaceutical device containing said thrombin coated gelatin granules as a dry and stable hemostatic composition.
Air guiding element for motor vehicles, comprising at least one elongated hollow body, the inner wall of which defines an air guidance duct, wherein sound-absorbing auxiliary bodies (2, 3) are provided in the hollow body along its longitudinal direction of extension, which bodies are arranged and fastened in the hollow body in such a way that air flowing in the hollow body along the air guidance duct additionally flows along the auxiliary bodies, interacting therewith, wherein the auxiliary bodies (3, 4) have different thicknesses (d1, d2) and the auxiliary bodies (3, 4) absorb a different frequency Y of the air-transmitted sound depending on the thickness (d1, d2), characterized in that the thicknesses (d1, d2) of the auxiliary bodies (3, 4) are defined depending on the frequencies Y to be absorbed by the air guidance element as follows: thickness d = speed of sound in air X ⋅ frequency Y wherein the speed of sound in 20°C dry air is 343.2 m/s and wherein X is a value of between 7 to 9 and the frequencies to be absorbed are between 800 Hertz and 2500 Hertz. the thicknesses (d1, d2) of the auxiliary bodies (3, 4) are defined depending on the frequencies Y to be absorbed by the air guidance element as follows: thickness d = speed of sound in air X ⋅ frequency Y wherein the speed of sound in 20°C dry air is 343.2 m/s and wherein X is a value of between 7 to 9 and the frequencies to be absorbed are between 800 Hertz and 2500 Hertz.
Operator control system for operating at least one function in an interior of a vehicle, having a representation generator which after activating a representation region, assigned to the at least one function, in the interior of the vehicle is configured for the holographic representation of at least one virtual operating element, assigned to the at least one function, in the representation region assigned to the at least one function in the interior of the vehicle, a detection and capturing device, which is configured for the detecting and capturing of at least one gesture, to be interpreted as an operating input, of a vehicle occupant in the case of an actuation, desired on the part of the vehicle occupant, of the at least one virtual operating element, and a computing unit, which is configured to interpret the gesture as an operating input and to initiate an implementation, corresponding to the operating input, of the at least one function, characterised in that the activation of the representation region, assigned to the at least one function, in the interior of the vehicle takes place only on the entry of an element, carrying out the gestures, into a defined effective region assigned to the representation region.
Method for washing a window of a vehicle, using at least one wiper blade member and means (10, 13, 14) for projecting a liquid for washing the window onto a wiping surface which is delimited between a wiping starting position and a wiping end position for the at least one wiper blade member, the method comprising at least two wiping cycles each comprising: - a first step in which the wiper blade member is actuated in order to move over the window between a first starting position (P1; P0) and the wiping end position, and - a second step in which the wiper blade member is actuated in order to move over the window in the opposite direction from the wiping end position as far as a second starting position (P3; P5); the first starting position of a wiping cycle corresponding to the second starting position of the preceding wiping cycle, characterised in that it begins with a first wiping cycle whose first and second starting positions (P1, P0) are substantially identical and are at least as far away from the wiping end position as the wiping starting position and in which the projection means (10, 13, 14) are actuated at least during the first step in order to project washing liquid in front of the wiper blade member relative to its movement direction, and in that it comprises, immediately afterwards, a second wiping cycle whose second starting position (P3; P5) is offset towards the wiping end position relative to the first starting position (P1; P0). - a first step in which the wiper blade member is actuated in order to move over the window between a first starting position (P1; P0) and the wiping end position, and - a second step in which the wiper blade member is actuated in order to move over the window in the opposite direction from the wiping end position as far as a second starting position (P3; P5);
A computer-implemented method comprising: executing a video game application at a server that is remotely connected to a game controller and a client device used for player interaction with the video game application; and responsive to detecting, at the server, instantiation of a player interactive window in a video stream generated in association with the video game application, preventing, by the server, one or more player inputs from the game controller that are received during a specified filter window following instantiation of the player interactive window from being interpreted by the video game application as player input that is reactive to the player interactive window, wherein detecting instantiation of the player interactive window comprises detecting, at the server, an initial presence of an object indicating a player interactive window in a frame of the video stream using an object recognition model which is configured to search for the presence of one or more characteristics indicative of a player interactive window in the frame. executing a video game application at a server that is remotely connected to a game controller and a client device used for player interaction with the video game application; and responsive to detecting, at the server, instantiation of a player interactive window in a video stream generated in association with the video game application, preventing, by the server, one or more player inputs from the game controller that are received during a specified filter window following instantiation of the player interactive window from being interpreted by the video game application as player input that is reactive to the player interactive window, wherein detecting instantiation of the player interactive window comprises detecting, at the server, an initial presence of an object indicating a player interactive window in a frame of the video stream using an object recognition model which is configured to search for the presence of one or more characteristics indicative of a player interactive window in the frame.
Method for producing liquid CO 2 out of combustion flue gases wherein the flue gas is partially condensed in at least two separation stages (9, 21) and the at least two separation stages (9, 21) are cooled by expanded offgas and expanded liquid CO 2 (3.1, 3.3), wherein expanded CO 2 is separated after having passed the last separation stage into liquid CO 2 and gaseous CO 2 in an additional separation drum, wherein the gaseous CO 2 (3.4) and a part of the liquid CO 2 (3.5) of the additional separation drum is expanded (15.4, 15.5) to a first pressure level (flag 7d) and used for cooling the flue gas in the at least two separation stages (9,21) and conveyed to a first compression stage of a second multistage compressor, wherein the pressure of the remainder of the liquid CO 2 (3.6) is raised to a second pressure level (flag 7e) and expanded (15.6) and used for cooling the flue gas in the at least two separation stages (9, 21) and conveyed to a second compression stage of the second multistage-compressor, and wherein the expanded liquid CO 2, the gaseous CO 2, the part of the liquid CO2 of the additional separation drum and the remainder of the liquid CO 2 are compressed with the second multistage compressor, cooled and liquefied to produce liquid CO 2.
A flow rate control apparatus, which is capable of controlling the flow rate of a fluid that flows between a pair of ports (12, 16), by displacement of a rod having a valve member thereon in an axial direction, comprising: a body (14,18) having the ports (12, 16) and a seat on which the valve member is seated, the rod being screw-engaged rotatably in the body (14,18); and a stopper means disposed on the body (14,18) and the rod, and which regulates rotational displacement of the rod in a valve-closed state in which the valve member is seated on the seat, characterized in that the body (14,18) and the rod are both formed from a resin material, and that the stopper means comprises a first wall (54a, 54b) formed substantially parallel with an axis of the body (14,18), and a second wall (110a, 110b) disposed on the rod and formed substantially parallel with an axis of the rod, wherein rotational displacement of the rod is regulated by abutment of the first wall (54a, 54b) against the second wall (110a, 110b). a body (14,18) having the ports (12, 16) and a seat on which the valve member is seated, the rod being screw-engaged rotatably in the body (14,18); and a stopper means disposed on the body (14,18) and the rod, and which regulates rotational displacement of the rod in a valve-closed state in which the valve member is seated on the seat, characterized in that the body (14,18) and the rod are both formed from a resin material, and that the stopper means comprises a first wall (54a, 54b) formed substantially parallel with an axis of the body (14,18), and a second wall (110a, 110b) disposed on the rod and formed substantially parallel with an axis of the rod, wherein rotational displacement of the rod is regulated by abutment of the first wall (54a, 54b) against the second wall (110a, 110b).
A method for triggering change of a Radio Resource Control, RRC, state for a user equipment (101, 401) operating in a cellular network, the method comprising: setting (51, 91) a Radio Link Control, RLC, buffer threshold associated with a Radio Link Control buffer to an initial value upon the user equipment (101, 401) entering a RRC state CELL_FACH; and further characterized by: determining if a current size of the RLC buffer exceeds the RLC buffer threshold, wherein the RLC buffer threshold is a function of time; decreasing the RLC buffer threshold if the current size of the RLC buffer does not exceed the RLC buffer threshold; and triggering (54, 95) a RRC state change for the user equipment (101, 401) from the RRC state CELL_FACH to a RRC state CELL_DCH if the current size of the RLC buffer exceeds the RLC buffer threshold. setting (51, 91) a Radio Link Control, RLC, buffer threshold associated with a Radio Link Control buffer to an initial value upon the user equipment (101, 401) entering a RRC state CELL_FACH; and further characterized by: determining if a current size of the RLC buffer exceeds the RLC buffer threshold, wherein the RLC buffer threshold is a function of time; decreasing the RLC buffer threshold if the current size of the RLC buffer does not exceed the RLC buffer threshold; and triggering (54, 95) a RRC state change for the user equipment (101, 401) from the RRC state CELL_FACH to a RRC state CELL_DCH if the current size of the RLC buffer exceeds the RLC buffer threshold. determining if a current size of the RLC buffer exceeds the RLC buffer threshold, wherein the RLC buffer threshold is a function of time; decreasing the RLC buffer threshold if the current size of the RLC buffer does not exceed the RLC buffer threshold; and triggering (54, 95) a RRC state change for the user equipment (101, 401) from the RRC state CELL_FACH to a RRC state CELL_DCH if the current size of the RLC buffer exceeds the RLC buffer threshold.
A process for dehydrogenating a hydrocarbon comprising contacting a gaseous stream comprising at least one dehydrogenatable hydrocarbon selected from paraffinic hydrocarbons, alkylaromatic hydrocarbons, and mixtures thereof with a supported dehydrogenation catalyst, wherein the contacting is carried out in a dehydrogenation reactor which is a riser reactor; wherein the paraffinic hydrocarbons are selected from ethane, propane, isopropane, and butane; and the alkylaromatic hydrocarbons are selected from ethylbenzene, propylbenzene and methylethylbenzene; wherein the supported dehydrogenation catalyst comprises:- i) from 0.25 to 5.0 weight percent gallium; ii) from 0.0005 to 0.05 weight percent platinum; iii) from 0.0 to 2.0 weight percent of potassium; and iv) an alumina support, optionally containing from 0 to 5 weight percent silica, comprising alumina in the gamma crystalline form; wherein the sum of the components is 100%; wherein the support has a surface area greater than 100 m 2 /g and up to 250 m 2 /g, as measured using the BET method; wherein the catalyst has an average residence time within the dehydrogenation reactor from 0.5 to 40 seconds; wherein the temperature within the dehydrogenation reactor is from 500 to 800 degrees centigrade and the pressure is from 3.7 to 64.7 psia (0.26 to 4.55 kg/cm 2); and transferring the spent catalyst to a regenerator or recycle loop, wherein the catalyst is regenerated by contacting with an oxygen-containing gas and optionally a fuel source, and cycling the regenerated catalyst to the dehydrogenation reactor. i) from 0.25 to 5.0 weight percent gallium; ii) from 0.0005 to 0.05 weight percent platinum; iii) from 0.0 to 2.0 weight percent of potassium; and iv) an alumina support, optionally containing from 0 to 5 weight percent silica, comprising alumina in the gamma crystalline form;
A scheduling method, wherein the method comprises: receiving, by a first device, semi-persistent scheduling, SPS, configuration information from a base station, wherein the SPS configuration information is used to indicate an SPS resource configuration, the SPS resource configuration comprises more than one SPS resource used for vehicle to everything, V2X, service; receiving, by the first device, SPS activation information from the base station, wherein the SPS activation information is used to indicate an activated SPS resource, and the activated SPS resource is one or more SPS resources in the SPS resource configuration; selecting, by the first device, based on the one or more activated SPS resources and a service requirement of a service, an SPS resource that meets the service requirement of the service; and sending, by the first device, SPS instruction information to the base station, wherein the SPS instruction information is used to instruct to use or not to use a SPS resource of the activated SPS resource. receiving, by a first device, semi-persistent scheduling, SPS, configuration information from a base station, wherein the SPS configuration information is used to indicate an SPS resource configuration, the SPS resource configuration comprises more than one SPS resource used for vehicle to everything, V2X, service; receiving, by the first device, SPS activation information from the base station, wherein the SPS activation information is used to indicate an activated SPS resource, and the activated SPS resource is one or more SPS resources in the SPS resource configuration; selecting, by the first device, based on the one or more activated SPS resources and a service requirement of a service, an SPS resource that meets the service requirement of the service; and sending, by the first device, SPS instruction information to the base station, wherein the SPS instruction information is used to instruct to use or not to use a SPS resource of the activated SPS resource.
An apparatus, comprising: a drug container configured to hold a liquid drug; a plunger positioned in the drug container; a drive system coupled to the plunger, the drive system configured to advance the plunger to expel a portion of the liquid drug from the drug container for delivery to a patient, the drive system comprising one or more spherical elements comprising a metallic material, and a drive spring; a Hall effect sensor positioned adjacent to the drug container; and a controller coupled to the Hall effect sensor, wherein the Hall effect sensor is configured to: measure a varying magnetic field caused by the one or more spherical elements passing the Hall effect sensor, and generate a signal indicative of the measured varying magnetic field, wherein the controller receives the signal generated by the Hall effect sensor and determines a count of a number of the one or more spherical elements that pass the Hall effect sensor. a drug container configured to hold a liquid drug; a plunger positioned in the drug container; a drive system coupled to the plunger, the drive system configured to advance the plunger to expel a portion of the liquid drug from the drug container for delivery to a patient, the drive system comprising one or more spherical elements comprising a metallic material, and a drive spring; a Hall effect sensor positioned adjacent to the drug container; and a controller coupled to the Hall effect sensor, wherein the Hall effect sensor is configured to: measure a varying magnetic field caused by the one or more spherical elements passing the Hall effect sensor, and generate a signal indicative of the measured varying magnetic field, measure a varying magnetic field caused by the one or more spherical elements passing the Hall effect sensor, and generate a signal indicative of the measured varying magnetic field, wherein the controller receives the signal generated by the Hall effect sensor and determines a count of a number of the one or more spherical elements that pass the Hall effect sensor.
An induction heating apparatus for use with a range of workpiece diameters, comprising: a first set of two or more conductors including a first conductor and a second set of two or more conductors including a second conductor, being capable of flexibility or other deformation so as to match the physical shape of a workpiece and configured to be arranged in conformance with the workpiece while the conductors are not electrically connected in series; a turn connector configured to: couple the first set of two or more conductors in parallel with each other to form a first one of a plurality of turns; couple the second set of two or more conductors in parallel with each other; connect the first and second sets of two or more conductors in series to configure the first and second sets of two or more conductors as an inductor having a plurality of turns; and arrange portions of the first and second conductors located between the turn connector and the workpiece to be adjacent. a first set of two or more conductors including a first conductor and a second set of two or more conductors including a second conductor, being capable of flexibility or other deformation so as to match the physical shape of a workpiece and configured to be arranged in conformance with the workpiece while the conductors are not electrically connected in series; a turn connector configured to: couple the first set of two or more conductors in parallel with each other to form a first one of a plurality of turns; couple the second set of two or more conductors in parallel with each other; connect the first and second sets of two or more conductors in series to configure the first and second sets of two or more conductors as an inductor having a plurality of turns; and arrange portions of the first and second conductors located between the turn connector and the workpiece to be adjacent. couple the first set of two or more conductors in parallel with each other to form a first one of a plurality of turns; couple the second set of two or more conductors in parallel with each other; connect the first and second sets of two or more conductors in series to configure the first and second sets of two or more conductors as an inductor having a plurality of turns; and arrange portions of the first and second conductors located between the turn connector and the workpiece to be adjacent.
Solid sweetener composition consisting of a number of grains; the composition comprises grains of crystals of erythritol and at least 40 wet%, with respect to the total weight of the composition, of grains of crystals of a further sweetener selected from a group consisting of: fructose, sucrose, glucose and a mixture thereof; the crystals of erythritol and the crystals of the further sweetener are separate from each other; the sum of the weights of erythritol and the further sweetener constitutes at least 97 wt% of the total weight of the composition; the composition comprising at least 25 wt%, with respect to the total weight of the composition, of erythritol. fructose, sucrose, glucose and a mixture thereof; the crystals of erythritol and the crystals of the further sweetener are separate from each other; the sum of the weights of erythritol and the further sweetener constitutes at least 97 wt% of the total weight of the composition; the composition comprising at least 25 wt%, with respect to the total weight of the composition, of erythritol.