mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle, having: - an internal combustion engine, which generates a combustion gas during operation, - an exhaust system for taking away the combustion gas of the internal combustion engine to at least one outlet opening, - a detection device (17, 18) for generating a state signal, which during operation of the internal combustion engine describes a current engine noise thereof and/or a current operating parameter characterising the operation, - at least one loudspeaker, which is configured to radiate a sound into a respective pipe of the exhaust system towards the at least one outlet opening, and - a control device, which is configured to control the at least one loudspeaker for generating the sound in response to the state signal and thereby, by means of the generated sound, to at least partially compensate the motor noise and/or to at least partially replace same with another predetermined engine noise, characterised in that the control device is configured to additionally control the at least one loudspeaker independently of the state signal on the basis of predetermined, stored audio data and thereby, by means of the at least one loudspeaker to output an acoustic advisory signal described by the audio data, wherein a detection device is provided and configured to detect a predetermined output situation, which comprises at least one state change of a closing system for vehicle doors of the motor vehicle, to detect and to signal, through a trigger signal which is independent of the state signal and generated in the output situation with a predetermined time delay, and the control device is configured to output the advisory signal depending on the trigger signal. - an internal combustion engine, which generates a combustion gas during operation, - an exhaust system for taking away the combustion gas of the internal combustion engine to at least one outlet opening, - a detection device (17, 18) for generating a state signal, which during operation of the internal combustion engine describes a current engine noise thereof and/or a current operating parameter characterising the operation, - at least one loudspeaker, which is configured to radiate a sound into a respective pipe of the exhaust system towards the at least one outlet opening, and - a control device, which is configured to control the at least one loudspeaker for generating the sound in response to the state signal and thereby, by means of the generated sound, to at least partially compensate the motor noise and/or to at least partially replace same with another predetermined engine noise,
A probe-support apparatus for aspirating a volume of liquid contained in a sealed tube having a puncturable stopper, the apparatus comprising: a first drive motor adapted to move along a first path to a location of the tube and to advance a linear drive member towards or away from the puncturable stopper along a second path, the second path is substantially perpendicular to the first path and parallel to the central longitudinal axis of the tube; a tube detector mounted at one end of the linear drive member, the tube detector adapted to detect that the tube is in a position to have liquid aspirated therefrom; a second drive motor supported by the linear drive member and adapted to move along the linear drive member, towards and away from the puncturable stopper; and an aspiration probe connected to the second drive motor, the aspiration probe is aligned with the central longitudinal axis of the tube when the tube detector is in contact with a puncturable stopper, the probe having a sharp tip adapted to puncture the puncturable stopper and thereby enter the interior of the tube as the second drive motor moves along the linear drive member towards the puncturable stopper. a first drive motor adapted to move along a first path to a location of the tube and to advance a linear drive member towards or away from the puncturable stopper along a second path, the second path is substantially perpendicular to the first path and parallel to the central longitudinal axis of the tube; a tube detector mounted at one end of the linear drive member, the tube detector adapted to detect that the tube is in a position to have liquid aspirated therefrom; a second drive motor supported by the linear drive member and adapted to move along the linear drive member, towards and away from the puncturable stopper; and an aspiration probe connected to the second drive motor, the aspiration probe is aligned with the central longitudinal axis of the tube when the tube detector is in contact with a puncturable stopper, the probe having a sharp tip adapted to puncture the puncturable stopper and thereby enter the interior of the tube as the second drive motor moves along the linear drive member towards the puncturable stopper.
Method of operating an ejector refrigeration circuit with at least two controllable ejectors (6, 7) connected in parallel and respectively comprising a controllable motive nozzle, a primary high pressure input port (6a, 7a) forming an inlet to the controllable motive nozzle, a secondary low pressure input port (6b, 7b) and an output port (6c, 7c), wherein the method is characterised by comprising the steps of: a) operating a first ejector of the at least two controllable ejectors (6, 7) by controlling the opening degree of its primary high pressure input port until the maximum efficiency of said first ejector has been reached or the actual refrigeration demands are met; b) operating at least one additional ejector of the at least two controllable ejectors (6, 7) by gradually opening its primary high pressure input port (6a, 7a) for increasing the refrigeration capacity of the ejector refrigeration circuit in case the actual refrigeration demands are not met by operating the first ejector alone. a) operating a first ejector of the at least two controllable ejectors (6, 7) by controlling the opening degree of its primary high pressure input port until the maximum efficiency of said first ejector has been reached or the actual refrigeration demands are met; b) operating at least one additional ejector of the at least two controllable ejectors (6, 7) by gradually opening its primary high pressure input port (6a, 7a) for increasing the refrigeration capacity of the ejector refrigeration circuit in case the actual refrigeration demands are not met by operating the first ejector alone.
Pressure sensor system comprising at least one pressure sensor in the form of a waveguide comprising, in this order, a first ground plane, an incompressible dielectric, a signal surface, a compressible dielectric and a second ground plane, wherein the waveguide is designed so that a force acting on the waveguide changes the frequency-dependent reflection factor of the waveguide, and at least one control unit which is designed and configured to excite the waveguide, preferably by means of a microwave transmitting/receiving unit, with a frequency-variable signal to detect the reflected portion, preferably by means of a directional coupler, from the emitted frequency-variable signal and the reflected portion thereof, preferably by means of an evaluation unit, to determine the reflection factor as a function of the frequency, and to determine the acting force from the difference between a predetermined reflection factor and the determined reflection factor. a first ground plane, an incompressible dielectric, a signal surface, a compressible dielectric and a second ground plane, wherein the waveguide is designed so that a force acting on the waveguide changes the frequency-dependent reflection factor of the waveguide, and at least one control unit which is designed and configured to excite the waveguide, preferably by means of a microwave transmitting/receiving unit, with a frequency-variable signal to detect the reflected portion, preferably by means of a directional coupler, from the emitted frequency-variable signal and the reflected portion thereof, preferably by means of an evaluation unit, to determine the reflection factor as a function of the frequency, and to determine the acting force from the difference between a predetermined reflection factor and the determined reflection factor.
A composition, comprising: between 85 wt% and 95 wt% of poly(propylene); and between 15 wt% and 5 wt% of a liquid additive in contact with the poly(propylene), the liquid additive comprising a lactam group; wherein wt% is based on total weight of the composition, between 85 wt% and 95 wt% of poly(propylene); and between 15 wt% and 5 wt% of a liquid additive in contact with the poly(propylene), the liquid additive comprising a lactam group; wherein wt% is based on total weight of the composition,
Method for protecting sensor data (x) of a sensor against manipulation, wherein in the context of an authentication of the sensor a number (R B) that is used once is sent from a control unit to the sensor and the sensor generates a cryptographic authentication message using the number (R B) that is used once, and transmits at least a first part of the cryptographic authentication message to the control unit, wherein the sensor data (x) are provided with a cryptographic integrity protection, time-variant parameters (c) are added to the sensor data (x) and wherein the sensor data (x) with the cryptographic integrity protection and the added time-variant parameters (c) are sent from the sensor to the control unit, characterized in that at least a second part of the cryptographic authentication message is used for a calculation of the time-variant parameters (c) and at least a third part of the cryptographic authentication message is used for a calculation of the cryptographic integrity protection, wherein the second part of the cryptographic authentication message and the third part of the cryptographic authentication message are not transmitted.
Support tooling for supporting at least one metal part that is to be subjected to heat treatment or shaped while hot, said tooling comprising: · a stationary support structure presenting a determined shape that corresponds to the general shape of each metal part that is to be supported; · first holder elements arranged on one side of each part; · second holder elements arranged on the other side of each part; and · at least one spring type resilient element placed between the support structure and each first or second holder element (1161-1261; 1162-1262) so as to hold the part throughout the duration of heat treatment; the support structure, the first and second holder elements (1161-1261; 1162-1262) and the resilient element(s) being made of thermostructural composite material. · a stationary support structure presenting a determined shape that corresponds to the general shape of each metal part that is to be supported; · first holder elements arranged on one side of each part; · second holder elements arranged on the other side of each part; and · at least one spring type resilient element placed between the support structure and each first or second holder element (1161-1261; 1162-1262) so as to hold the part throughout the duration of heat treatment;
A method of operating a client device (300A; 300B; 400) associated with a first user, comprising: performing, by the client device, (800, 810; 815, 830; 835, 850; 1300; 1325) a registration procedure with an Internet Protocol, IP, Multimedia Subsystem, IMS, network to register the client device to a first user for IMS service; characterized by: communicating, by the client device, (1305, 1310; 1330, 1335; 1350, 1355) with one or more other client devices that are also registered to the first user for the IMS service to obtain rich communication suite, RCS, capability information for the one or more other client devices; receiving, by the client device, (1430; 1435; 1440) a request to report the client device's RCS capability information; and transmitting (1445; 1455; 1460), by the client device in response to the received request, a message that indicates both (i) the client device's RCS capability information and (ii) the RCS capability information for the one or more other client devices. performing, by the client device, (800, 810; 815, 830; 835, 850; 1300; 1325) a registration procedure with an Internet Protocol, IP, Multimedia Subsystem, IMS, network to register the client device to a first user for IMS service; characterized by: communicating, by the client device, (1305, 1310; 1330, 1335; 1350, 1355) with one or more other client devices that are also registered to the first user for the IMS service to obtain rich communication suite, RCS, capability information for the one or more other client devices; receiving, by the client device, (1430; 1435; 1440) a request to report the client device's RCS capability information; and transmitting (1445; 1455; 1460), by the client device in response to the received request, a message that indicates both (i) the client device's RCS capability information and (ii) the RCS capability information for the one or more other client devices. communicating, by the client device, (1305, 1310; 1330, 1335; 1350, 1355) with one or more other client devices that are also registered to the first user for the IMS service to obtain rich communication suite, RCS, capability information for the one or more other client devices; receiving, by the client device, (1430; 1435; 1440) a request to report the client device's RCS capability information; and transmitting (1445; 1455; 1460), by the client device in response to the received request, a message that indicates both (i) the client device's RCS capability information and (ii) the RCS capability information for the one or more other client devices.
An apparatus comprising: (a) a body, (b) a shaft assembly extending distally from the body, wherein the shaft assembly defines a longitudinal axis; (c) an articulation section attached to a distal end of the shaft assembly; (d) an end effector located distally relative to the shaft assembly, wherein the end effector is connected to the articulation section; and (e) an articulation drive assembly, wherein the articulation drive assembly is configured to drive the articulation section to thereby deflect the end effector relative to the longitudinal axis from a non-articulated configuration to an articulated configuration, wherein the articulation drive assembly comprises: (i) a cap fixed to the body, (ii) a rotatable housing rotatably coupled to the cap, wherein the rotatable housing comprises a ridge, characterised in that the cap comprises a resilient indication feature configured to interact with the ridge to provide a tactile response in response to the end effector deflecting into the non-articulated configuration. (a) a body, (b) a shaft assembly extending distally from the body, wherein the shaft assembly defines a longitudinal axis; (c) an articulation section attached to a distal end of the shaft assembly; (d) an end effector located distally relative to the shaft assembly, wherein the end effector is connected to the articulation section; and (e) an articulation drive assembly, wherein the articulation drive assembly is configured to drive the articulation section to thereby deflect the end effector relative to the longitudinal axis from a non-articulated configuration to an articulated configuration, wherein the articulation drive assembly comprises: (i) a cap fixed to the body, (ii) a rotatable housing rotatably coupled to the cap, wherein the rotatable housing comprises a ridge, characterised in that the cap comprises a resilient indication feature configured to interact with the ridge to provide a tactile response in response to the end effector deflecting into the non-articulated configuration. (i) a cap fixed to the body, (ii) a rotatable housing rotatably coupled to the cap, wherein the rotatable housing comprises a ridge, characterised in that the cap comprises a resilient indication feature configured to interact with the ridge to provide a tactile response in response to the end effector deflecting into the non-articulated configuration.
Use of a non-porous adhesive article and a packing material to provide a fire-resistant joint system, wherein the non-porous adhesive article comprises an adhesive disposed on a first major surface of a substrate, wherein the fire-resistant joint system comprises a first structural element having a first attachment area and a second structural element having a second attachment area, the first and second structural elements being moveable with respect to one another, the first and second attachment areas defining a space therebetween, the space having a fixed length and a width which varies from a minimum width to a maximum width as the structural elements move with respect to each other, wherein the space comprises the packing material and the non-porous adhesive article is fixedly attached via the adhesive to the first attachment area, the second attachment area, and the packing material.
A sealing plate adapted for being penetrated by a cable and/or an electrical conduit, said sealing plate being able to seal a cable and/or an electrical conduit passing through, said sealing plate being intended for being used in connection with an electronics module in a fuel dispensing unit, wherein said sealing plate comprises a metal plate having at least one knock out hole, characterized in that a skin of an elastomer has been joined to said metal plate, thereby tightly covering said knock out hole.
Housing unit of a motor vehicle engine, in particular an oil housing, having a housing wall with an opening, in particular an oil drain opening, wherein a locking screw is arranged in the opening, comprising a screw shaft having a thread, a screw head connected with the screw shaft, and a first latch element connected with the screw head, said latch element cooperating with a second latch element arranged at the opening, wherein a movement grove or a movement slot is provided between the first latch element and the screw head, so that the first latch element is resiliently connected with the screw head, wherein the first latch element is designed as a latch nose engaging the second latch element designed as a latch groove which is arranged in the region of the opening, characterized in that the latch groove comprises a guide-out ramp provided on a housing wall, a perpendicular latera groove surface as an abutment surface, and a lateral groove surface opposite the perpendicular lateral groove surface, which is inclined outward away from the latch groove.
Method for monitoring properties of a support means arrangement in an elevator system, the support means arrangement having a plurality of support means by means of which an elevator car is supported and can be displaced, the method comprising: measuring tensile forces acting on the support means; characterized by deriving change information indicating changes in the properties of the support means arrangement by analyzing the progression over time of the measured tensile forces.
A vertical autoclave for use in a wet process of a metal comprising: an inlet port through which a process solution is introduced, an outlet port through which the process solution is discharged, an oxygen inlet port through which oxygen is supplied to the process solution, an agitator configured to mix the process solution, an inner wall, an abrasion-resistant and acid-resistant brick layer stacked to extend from a lower portion of the inner wall to a side portion of the inner wall such that the lower portion and the side portion of the inner wall are lined with the acid-resistant brick layer, and an acid-resistant metal layer lined on an upper portion of the inner wall. an inlet port through which a process solution is introduced, an outlet port through which the process solution is discharged, an oxygen inlet port through which oxygen is supplied to the process solution, an agitator configured to mix the process solution, an inner wall, an abrasion-resistant and acid-resistant brick layer stacked to extend from a lower portion of the inner wall to a side portion of the inner wall such that the lower portion and the side portion of the inner wall are lined with the acid-resistant brick layer, and an acid-resistant metal layer lined on an upper portion of the inner wall.
A frame configuration (I; II; III) for vehicles comprising a forward part (10; 210) and a rear part (30; 130, 160; 230), where the said forward and the said rear parts are united, and a first connection part (50; 150; 250) arranged between the said parts (10; 210, 30; 130, 160; 230) including a forward interface for connection with the said forward part and a rear interface for connection with the said rear part, whereby the said first connection part (50; 150; 250) includes a transition (53, 55) between the said parts from a first height at the said forward part to a second height at the said rear part, whereby the said forward and rear parts (10; 210, 30; 130, 160; 230) each includes two parallel beam elements (12, 14; 212, 214, 32, 34; 232, 234) that run longitudinally along the said vehicle, wherein the said forward part includes a first forward beam element and a second forward beam element that runs essentially parallel to the first forward beam element, and in that the said rear part includes a first rear beam element and a second rear beam element that runs essentially parallel with the first rear beam element, characterized in that the second height exceeds the first height, and the said forward interface at the connection part is adapted to the said first height at the said forward part and the said rear interface is adapted to the said second height at the said rear part.