mhurhangee/ep-ind-claims huggingface dataset:
An air spring, including: an upper cover; a lower cover, including a cover plate arranged opposite to the upper cover at intervals and a support part connected below the cover plate; a hollow interior of the support part and the cover plate forming a first accommodating chamber; a diaphragm, arranged between the cover plate and the upper cover to form an air chamber; a base, movably connected and sleeved outside the support part; an electromagnetic levitation module, including a first coil and a second coil which are able to be energized, wherein the first coil is mounted on the support part, being arranged in the first accommodating chamber, and the second coil is arranged on the base, being sleeved outside the base; the first coil and the second coil generate magnetic fields to form electromagnetic forces after being energized; and the current of the first coil and/or the second coil are/is adjustable; a detection module, including a first load sensor arranged on the upper cover and configured to detect vertical load borne by the air spring, and a first height sensor configured to detect a height difference between the upper cover and a bottom of the base; and an electromagnetic control module, electrically connected with the electromagnetic levitation module and the detection module respectively, and configured to receive detection signals from the detection module and control the electromagnetic levitation module according to the detection signals. an upper cover; a lower cover, including a cover plate arranged opposite to the upper cover at intervals and a support part connected below the cover plate; a hollow interior of the support part and the cover plate forming a first accommodating chamber; a diaphragm, arranged between the cover plate and the upper cover to form an air chamber; a base, movably connected and sleeved outside the support part; an electromagnetic levitation module, including a first coil and a second coil which are able to be energized, wherein the first coil is mounted on the support part, being arranged in the first accommodating chamber, and the second coil is arranged on the base, being sleeved outside the base; the first coil and the second coil generate magnetic fields to form electromagnetic forces after being energized; and the current of the first coil and/or the second coil are/is adjustable; a detection module, including a first load sensor arranged on the upper cover and configured to detect vertical load borne by the air spring, and a first height sensor configured to detect a height difference between the upper cover and a bottom of the base; and an electromagnetic control module, electrically connected with the electromagnetic levitation module and the detection module respectively, and configured to receive detection signals from the detection module and control the electromagnetic levitation module according to the detection signals.
A therapy system comprising: a therapy delivery module (84, 96) configured to deliver electrical neurostimulation therapy to a patient from a medical device (14, 26); and a processor configured to control the delivery of the electrical neurostimulation therapy to the patient from the medical device according to a posture state of the patient, detect a first posture state transition of the patient, modify the electrical neurostimulation therapy according to a first modification profile defined for the first posture state transition, wherein the first modification profile defines a first rate of change for an adjustment to an amplitude of the electrical neurostimulation therapy delivered to the patient, characterised in that the processor is further configured to detect, subsequently, a second posture state transition of the patient, and modify the therapy according to a second modification profile defined for the second posture state transition, wherein the second modification profile defines a second rate of change for an adjustment of the amplitude of the electrical neurostimulation therapy delivered to the patient that is different than the first rate of change defined by the first modification profile. a therapy delivery module (84, 96) configured to deliver electrical neurostimulation therapy to a patient from a medical device (14, 26); and a processor configured to control the delivery of the electrical neurostimulation therapy to the patient from the medical device according to a posture state of the patient, detect a first posture state transition of the patient, modify the electrical neurostimulation therapy according to a first modification profile defined for the first posture state transition, wherein the first modification profile defines a first rate of change for an adjustment to an amplitude of the electrical neurostimulation therapy delivered to the patient, characterised in that the processor is further configured to detect, subsequently, a second posture state transition of the patient, and modify the therapy according to a second modification profile defined for the second posture state transition, wherein the second modification profile defines a second rate of change for an adjustment of the amplitude of the electrical neurostimulation therapy delivered to the patient that is different than the first rate of change defined by the first modification profile.
Method for manufacturing a membrane-electrode assembly for a fuel cell, the method comprising the following steps: - A first step during which a chemical catalyst element is deposited on a first face of an ion-exchanging membrane, the membrane being held on a support film, - A second step during which the membrane is unglued from the support film, - A third step during which the membrane is inserted between two reinforcing elements (2, 2'), and - A fourth step during which a chemical catalyst element is deposited on the part left free of the second face of the membrane, the membrane being held on its periphery by the reinforcing elements (2, 2'). - A first step during which a chemical catalyst element is deposited on a first face of an ion-exchanging membrane, the membrane being held on a support film, - A second step during which the membrane is unglued from the support film, - A third step during which the membrane is inserted between two reinforcing elements (2, 2'), and - A fourth step during which a chemical catalyst element is deposited on the part left free of the second face of the membrane, the membrane being held on its periphery by the reinforcing elements (2, 2').
Agricultural machine having a trailed chassis and a transverse bar in several portions extending substantially transversely to the direction of advance in the work position and extending substantially parallel to the direction of advance in the transport position, the transverse bar includes two portions (3A, 3B) able to be folded around a first respective articulation with a substantially vertical axis, each portion (3A, 3B) supports a seeder device made up of a hopper and a seeder bar, characterized in that each seeder bar is fixed on the corresponding section (3A, 3B) using a second articulation with a substantially horizontal axis oriented parallel to the direction of advance in the work position, only the seeder bar is movable relative to the corresponding section (3A, 3B) around the second articulation.
A system for testing a wireless terminal, comprising: a device under test, wherein the device under test is a wireless terminal; a reflecting surface, configured to totally reflect one or more wireless signals emitted by the wireless terminal; a rotating mechanism, configured to fix the device under test, and to drive the device under test to rotate, such that wireless signals emitted by the wireless terminal in a plurality of directions are emitted to the reflecting surface in turn; a test antenna, configured to receive one or more reflected wireless signals and, superpose said one or more reflected wireless signals in phase; and an absorbing screen, configured to absorb a radio wave; wherein the device under test, the test antenna and the reflecting surface correspond to a same ellipsoidal surface, the device under test and the test antenna are arranged at two foci (a, b) of the ellipsoidal surface respectively, the reflecting surface is arranged on the ellipsoidal surface, and the absorbing screen is arranged on a straight line between the device under test and the test antenna. a device under test, wherein the device under test is a wireless terminal; a reflecting surface, configured to totally reflect one or more wireless signals emitted by the wireless terminal; a rotating mechanism, configured to fix the device under test, and to drive the device under test to rotate, such that wireless signals emitted by the wireless terminal in a plurality of directions are emitted to the reflecting surface in turn; a test antenna, configured to receive one or more reflected wireless signals and, superpose said one or more reflected wireless signals in phase; and an absorbing screen, configured to absorb a radio wave; wherein the device under test, the test antenna and the reflecting surface correspond to a same ellipsoidal surface, the device under test and the test antenna are arranged at two foci (a, b) of the ellipsoidal surface respectively, the reflecting surface is arranged on the ellipsoidal surface, and the absorbing screen is arranged on a straight line between the device under test and the test antenna.
A tire comprising a tread comprising: a plurality of circumferential grooves (20, 24) separating circumferential ribs, each groove (20, 24) comprising a bottom and two sidewalls (22, 23); one or more groove reinforcements (30, 31, 33, 34, 130), each groove reinforcement being laterally spaced from any other of said one or more groove reinforcements; wherein each groove reinforcement (30, 31, 33, 34, 130) is arranged adjacent one circumferential groove; wherein at least two circumferential grooves have no groove reinforcement adjacent to it, said at least two circumferential grooves having no groove reinforcement adjacent to it being the respective axially outermost circumferential grooves of the tread with respect to the equatorial plane of the tire; wherein each groove reinforcement (30, 31, 33, 34, 130) extends from a radially inner surface of the tread in a radially outward direction at least to the bottom of the adjacent circumferential groove to form at least part of the bottom of that groove; wherein at least 50 % of the circumferential grooves (20, 24) comprise said groove reinforcements (30, 31, 33, 34, 130); and wherein each groove reinforcement (30, 31, 33, 34, 130) consists of a rubber composition or of a thermoplastic material having a Shore A hardness of more than 80 and an elongation at break of at least 300 %. a plurality of circumferential grooves (20, 24) separating circumferential ribs, each groove (20, 24) comprising a bottom and two sidewalls (22, 23); one or more groove reinforcements (30, 31, 33, 34, 130), each groove reinforcement being laterally spaced from any other of said one or more groove reinforcements; wherein each groove reinforcement (30, 31, 33, 34, 130) is arranged adjacent one circumferential groove; wherein at least two circumferential grooves have no groove reinforcement adjacent to it, said at least two circumferential grooves having no groove reinforcement adjacent to it being the respective axially outermost circumferential grooves of the tread with respect to the equatorial plane of the tire; wherein each groove reinforcement (30, 31, 33, 34, 130) extends from a radially inner surface of the tread in a radially outward direction at least to the bottom of the adjacent circumferential groove to form at least part of the bottom of that groove; wherein at least 50 % of the circumferential grooves (20, 24) comprise said groove reinforcements (30, 31, 33, 34, 130); and wherein each groove reinforcement (30, 31, 33, 34, 130) consists of a rubber composition or of a thermoplastic material having a Shore A hardness of more than 80 and an elongation at break of at least 300 %.
An analyzer for analyzing samples comprising: a sample support for receiving samples to be analyzed; a matrix detector; and imaging optics (2, 3) configured to: collect light emitted from the samples, generate pupils of the collected light emitted from the samples; generating images of the pupils of the samples at the matrix detector, so that rays having different angular directions when emanating from the samples are imaged onto different locations at the matrix detector, characterized in that the analyzer is a turbidimetry in-vitro analyzer, and that the analyzer further comprises: a computing device configured to use information regarding the scattering properties of a predetermined substance to infer a concentration of this substance in the samples using the information gathered by the matrix detector. a sample support for receiving samples to be analyzed; a matrix detector; and imaging optics (2, 3) configured to: collect light emitted from the samples, generate pupils of the collected light emitted from the samples; generating images of the pupils of the samples at the matrix detector, so that rays having different angular directions when emanating from the samples are imaged onto different locations at the matrix detector, characterized in that the analyzer is a turbidimetry in-vitro analyzer, and that the analyzer further comprises: a computing device configured to use information regarding the scattering properties of a predetermined substance to infer a concentration of this substance in the samples using the information gathered by the matrix detector. collect light emitted from the samples, generate pupils of the collected light emitted from the samples; generating images of the pupils of the samples at the matrix detector, so that rays having different angular directions when emanating from the samples are imaged onto different locations at the matrix detector, characterized in that the analyzer is a turbidimetry in-vitro analyzer, and that the analyzer further comprises: a computing device configured to use information regarding the scattering properties of a predetermined substance to infer a concentration of this substance in the samples using the information gathered by the matrix detector.
A fluid actuated packer and collar assembly for positioning downhole on a tubular member, the packer and collar assembly comprising: first and second axially spaced packer heads (20, 21) each supported on and circumferentially surrounding the tubular member; an expandable packer element extending axially between the first and second packer heads (20, 21); a movable collar supported on and positioned within the tubular member, the collar having a closed position and a packer activate position; characterized by a flow path extending from an interior of the tubular member to the expandable packer element for activating the packer element when the collar is in the packer activate position and the collar closing off the flow path when the collar is in the closed position; a closing valve positioned along the flow path downstream from the collar for closing off flow to the packer element when in a valve closed position; and a running tool positioned within the tubular member for mechanically moving the collar from the closed position to the packer activate position. first and second axially spaced packer heads (20, 21) each supported on and circumferentially surrounding the tubular member; an expandable packer element extending axially between the first and second packer heads (20, 21); a movable collar supported on and positioned within the tubular member, the collar having a closed position and a packer activate position; characterized by a flow path extending from an interior of the tubular member to the expandable packer element for activating the packer element when the collar is in the packer activate position and the collar closing off the flow path when the collar is in the closed position; a closing valve positioned along the flow path downstream from the collar for closing off flow to the packer element when in a valve closed position; and a running tool positioned within the tubular member for mechanically moving the collar from the closed position to the packer activate position.
A secondary cellular communication device comprising: a Universal Integrated Circuit Card, UICC, configured to store an embedded Subscriber Identity Module, eSIM; at least one processor; and a memory comprising software instructions executable by the at least one processor to cause the secondary cellular communication device to: receive, from a primary cellular communication device, a first indication that an eSIM has been bound to an identifier of the secondary cellular communication device; receive, from the primary cellular communication device, a second indication that multi-SIM functionality has been initiated for the eSIM and a SIM of the primary cellular communication device, wherein multi-SIM functionality associates the primary cellular communication device and the secondary cellular communication device with a shared telephone number; download the eSIM to the UICC in response to receiving the first indication and the second indication; and utilize the eSIM to conduct a cellular communication on the cellular communication network. a Universal Integrated Circuit Card, UICC, configured to store an embedded Subscriber Identity Module, eSIM; at least one processor; and a memory comprising software instructions executable by the at least one processor to cause the secondary cellular communication device to: receive, from a primary cellular communication device, a first indication that an eSIM has been bound to an identifier of the secondary cellular communication device; receive, from the primary cellular communication device, a second indication that multi-SIM functionality has been initiated for the eSIM and a SIM of the primary cellular communication device, wherein multi-SIM functionality associates the primary cellular communication device and the secondary cellular communication device with a shared telephone number; download the eSIM to the UICC in response to receiving the first indication and the second indication; and utilize the eSIM to conduct a cellular communication on the cellular communication network. receive, from a primary cellular communication device, a first indication that an eSIM has been bound to an identifier of the secondary cellular communication device; receive, from the primary cellular communication device, a second indication that multi-SIM functionality has been initiated for the eSIM and a SIM of the primary cellular communication device, wherein multi-SIM functionality associates the primary cellular communication device and the secondary cellular communication device with a shared telephone number; download the eSIM to the UICC in response to receiving the first indication and the second indication; and utilize the eSIM to conduct a cellular communication on the cellular communication network.
An exhaust gas purification device for an internal combustion engine having an injection module for a reducing agent, in particular urea, having a housing comprising a main chamber, in which main chamber a mixing tube is arranged downstream of a metering chamber, into which the reducing agent is injected via at least one injection device, wherein the injection module for exhaust gas has at least one first inlet into the main chamber and at least one first outlet out of the mixing tube, characterised in that the metering chamber has at least one second inlet for exhaust gas and the main chamber has at least one second outlet for exhaust gas, and that within the injection module the main chamber is separated from the metering chamber and from the interior of the mixing tube in a gas-tight manner.
An aqueous firefighting composition concentrate, comprising: 0.1 to 5% by weight of a high molecular weight water soluble anionic acrylic polymer having a weight average molecular weight Mw of at least 1000 kDa; 0.2 to 7% by weight of at least one high molecular weight polysaccharide gum; and 1-25% by weight of at least one surfactant; based on the total weight of concentrate. 0.1 to 5% by weight of a high molecular weight water soluble anionic acrylic polymer having a weight average molecular weight Mw of at least 1000 kDa; 0.2 to 7% by weight of at least one high molecular weight polysaccharide gum; and 1-25% by weight of at least one surfactant; based on the total weight of concentrate.
A method comprising: by a primary wireless device: establishing a first connection with a primary wireless ear bud; generating a set of link keys for facilitating pairing a secondary wireless device with the primary wireless ear bud; and sharing the set of link keys with the secondary wireless device and the primary wireless ear bud, wherein the secondary wireless device can subsequently use the set of link keys to establish a second connection with the primary wireless ear bud; and by the primary wireless ear bud: determining operating parameters for communicating with the primary wireless device and/or the secondary wireless device, and providing the operating parameters to a secondary wireless ear bud that monitors communication between the primary wireless ear bud and the primary wireless device and/or the secondary wireless device, wherein the roles of the primary wireless ear bud and the secondary wireless ear bud can be switched based on a wearing status of the primary wireless ear bud and/or the secondary wireless ear bud. by a primary wireless device: establishing a first connection with a primary wireless ear bud; generating a set of link keys for facilitating pairing a secondary wireless device with the primary wireless ear bud; and sharing the set of link keys with the secondary wireless device and the primary wireless ear bud, wherein the secondary wireless device can subsequently use the set of link keys to establish a second connection with the primary wireless ear bud; and establishing a first connection with a primary wireless ear bud; generating a set of link keys for facilitating pairing a secondary wireless device with the primary wireless ear bud; and sharing the set of link keys with the secondary wireless device and the primary wireless ear bud, wherein the secondary wireless device can subsequently use the set of link keys to establish a second connection with the primary wireless ear bud; and by the primary wireless ear bud: determining operating parameters for communicating with the primary wireless device and/or the secondary wireless device, and providing the operating parameters to a secondary wireless ear bud that monitors communication between the primary wireless ear bud and the primary wireless device and/or the secondary wireless device, wherein the roles of the primary wireless ear bud and the secondary wireless ear bud can be switched based on a wearing status of the primary wireless ear bud and/or the secondary wireless ear bud. determining operating parameters for communicating with the primary wireless device and/or the secondary wireless device, and providing the operating parameters to a secondary wireless ear bud that monitors communication between the primary wireless ear bud and the primary wireless device and/or the secondary wireless device, wherein the roles of the primary wireless ear bud and the secondary wireless ear bud can be switched based on a wearing status of the primary wireless ear bud and/or the secondary wireless ear bud.