mhurhangee/ep-ind-claims huggingface dataset:
An airbag module comprising an inflatable airbag, an inflator for inflating the airbag and comprising a plurality of securing units for attaching the airbag module to a vehicle, wherein, in a resting state prior to actuation, the airbag has a C-shaped configuration including two juxtaposed legs (12, 14) in an imaginary cross-sectional plane transversely to its longitudinal extension, characterized in that along its longitudinal extension the inflatable airbag includes a plurality of cross-sectional planes (EQ1, EQ2) in parallel to each other, wherein a first central plane defined by the legs (12-1, 14-1) juxtaposed in a first cross-sectional plane intersects a second central plane defined by the legs (12-2, 14-2) juxtaposed in a second cross-sectional plane.
A spray system (100, 400), comprising: a first spray applicator (102, 434) configured to operate with a first software driver; a first cascade voltage multiplier (132, 430) configured to operate with a second software driver different from the first software driver; a hardware attached on top, HAT, board configured to couple to the first spray applicator (102, 434), the first cascade voltage multiplier (132, 430), or both; and a controller (120, 204, 404) configured to couple to the HAT board, wherein the controller comprises a printed circuit board, PCB,, wherein the HAT board is located on the PCB, wherein the controller (120, 204, 404) is configured to automatically detect the first spray applicator (102, 434) via the HAT board and initialize the first software driver upon connection of the first spray applicator (102, 434) to the HAT board, and wherein the controller (120, 204, 404) is configured to automatically detect the first cascade voltage multiplier (132, 430) via the HAT board and initialize the second software driver upon connection of the first cascade voltage multiplier (132, 430) to the HAT board. a first spray applicator (102, 434) configured to operate with a first software driver; a first cascade voltage multiplier (132, 430) configured to operate with a second software driver different from the first software driver; a hardware attached on top, HAT, board configured to couple to the first spray applicator (102, 434), the first cascade voltage multiplier (132, 430), or both; and a controller (120, 204, 404) configured to couple to the HAT board, wherein the controller comprises a printed circuit board, PCB,, wherein the HAT board is located on the PCB, wherein the controller (120, 204, 404) is configured to automatically detect the first spray applicator (102, 434) via the HAT board and initialize the first software driver upon connection of the first spray applicator (102, 434) to the HAT board, and wherein the controller (120, 204, 404) is configured to automatically detect the first cascade voltage multiplier (132, 430) via the HAT board and initialize the second software driver upon connection of the first cascade voltage multiplier (132, 430) to the HAT board.
Electrode arrangement for cyclical reduction and oxidation of a redox species in an electrolyte, in which a control electrode and a collector electrode are arranged on an insulating substrate (31, 32) and switched for applying a voltage against a counter electrode, comprising: a) the control electrode, made for converting the redox species for cyclical electron transport between the control and the collector electrode as well as b) the collector electrode arranged lying opposite the control electrode, in which a layer structure made of a second insulator allowing a tunnel effect or field emission and a charge transfer mediator arranged on it for converting the redox species is arranged on the side of the collector electrode lying opposite the insulating substrate in addition. a) the control electrode, made for converting the redox species for cyclical electron transport between the control and the collector electrode as well as b) the collector electrode arranged lying opposite the control electrode, in which a layer structure made of a second insulator allowing a tunnel effect or field emission and a charge transfer mediator arranged on it for converting the redox species is arranged on the side of the collector electrode lying opposite the insulating substrate in addition.
A curable resin composition comprising more than 80% by weight of a benzoxazine blend, wherein the benzoxazine blend comprises: a difunctional benzoxazine component; and a multifunctional benzoxazine component with an average functionality of greater than 2, wherein component comprises a tri-functional benzoxazine compound represented by the following structure I: where R 1, R 2 and R 3 are independently selected from alkyl, cycloalkyl, and aryl, wherein the cycloalkyl and aryl groups are optionally substituted, and where substituted, one or more substituent groups may be present on each cycloalkyl and aryl group; and R 4 is selected from hydrogen, halogen, alkyl and alkenyl, and wherein the multifunctional benzoxazine component is present in an amount up to 30% by weight based on the total weight of the benzoxazine blend in the composition
A data transmission method, applied to a sender communications device, wherein the sender communications device is a terminal, and the method comprises: generating a plurality of radio resource control RRC segments by using an RRC segmentation function of an RRC layer entity of the sender communications device or an RRC segmentation function of a new protocol layer entity, wherein each of the plurality of RRC segments carries partial data content of an RRC message generated by the sender communications device; sending the plurality of RRC segments to a receiver communications device; receiving activation signaling or deactivation signaling for the RRC segmentation function from a network device; and activating the RRC segmentation function according to the activation signaling, or deactivating the RRC segmentation function according to the deactivation signaling, characterised in that the new protocol layer entity is one of the following cases: per-signaling radio bearer SRB, per-data radio bearer DRB; the RRC layer entity is one of the following cases: per-SRB, per-DRB. generating a plurality of radio resource control RRC segments by using an RRC segmentation function of an RRC layer entity of the sender communications device or an RRC segmentation function of a new protocol layer entity, wherein each of the plurality of RRC segments carries partial data content of an RRC message generated by the sender communications device; sending the plurality of RRC segments to a receiver communications device; receiving activation signaling or deactivation signaling for the RRC segmentation function from a network device; and activating the RRC segmentation function according to the activation signaling, or deactivating the RRC segmentation function according to the deactivation signaling, characterised in that the new protocol layer entity is one of the following cases: per-signaling radio bearer SRB, per-data radio bearer DRB; the RRC layer entity is one of the following cases: per-SRB, per-DRB. per-signaling radio bearer SRB, per-data radio bearer DRB; the RRC layer entity is one of the following cases: per-SRB, per-DRB.
The use of a pet food composition containing L-carnitine, from 18 to 40 wt% crude protein, 4 to 30 wt% fat, and 2 to 20 wt% total dietary fiber in the manufacture of a pet food product for use in promoting weight loss and/or for increasing the lean body mass and/or enhancing the satiety and decreasing voluntary food intake in overweight dogs.
A device comprising: a light source comprising a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region; a transparent waveguide, comprising a first opening and a second opening, wherein: the light source is positioned in the first opening such that the transparent waveguide surrounds the light source; the first opening is positioned near an edge of the transparent waveguide; the first opening has a first portion closer to the edge than a second portion; the second portion of the first opening is curved to direct light away from the edge; the second opening reflects light emitted from the light source and no light source is positioned in the second opening; characterized in that the first portion of the first opening is V-shaped to refract light toward the edge. a light source comprising a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region; a transparent waveguide, comprising a first opening and a second opening, wherein: the light source is positioned in the first opening such that the transparent waveguide surrounds the light source; the first opening is positioned near an edge of the transparent waveguide; the first opening has a first portion closer to the edge than a second portion; the second portion of the first opening is curved to direct light away from the edge; the second opening reflects light emitted from the light source and no light source is positioned in the second opening; characterized in that the light source is positioned in the first opening such that the transparent waveguide surrounds the light source; the first opening is positioned near an edge of the transparent waveguide; the first opening has a first portion closer to the edge than a second portion; the second portion of the first opening is curved to direct light away from the edge; the second opening reflects light emitted from the light source and no light source is positioned in the second opening; characterized in that the first portion of the first opening is V-shaped to refract light toward the edge.
A PTC thermistor comprising a semiconductor ceramic body and an external electrode formed on an outer surface of the semiconductor ceramic body, wherein the semiconductor ceramic body contains: a perovskite-type compound including Ba, Ti, Sr, and Ca; Mn; and a semiconducting agent, wherein the total content of Ba, Sr, Ca, and the semiconducting agent in terms of parts by mole being regarded as 100, the Sr content a in terms of parts by mole and the Ca content b in terms of parts by mole satisfy: 12.5 ≤ b ≤ 17.5 in the case of 20.0 ≤ a ≤ 22.5; and 12.5 ≤ b ≤ 15.0 in the case of 12.5 ≤ a ≤ 25.0, and the total content of Ti and Mn in terms of parts by mole being regarded as 100, the Mn content c in terms of parts by mole satisfies: 12.5 ≤ c ≤ 0.045. 12.5 ≤ b ≤ 17.5 in the case of 20.0 ≤ a ≤ 22.5; and 12.5 ≤ b ≤ 15.0 in the case of 12.5 ≤ a ≤ 25.0, and the total content of Ti and Mn in terms of parts by mole being regarded as 100, the Mn content c in terms of parts by mole satisfies: 12.5 ≤ c ≤ 0.045.
Process for the preparation of dimethyl ether comprising the steps of: a) providing a methanol containing feed stock; b) introducing the feed stock into a reaction zone within a gas cooled dimethyl ether reactor and passing the feed stock through the reaction zone; c) introducing a cooling gas stream into a cooling space within the gas cooled dimethyl ether reactor; d) reacting the feed stock in the reaction zone in presence of a catalyst being active in the dehydration of methanol to dimethyl ether to obtain a reactor effluent comprising dimethyl ether; e) passing the cooling gas stream through the cooling space in indirect heat exchanging relationship with the feed stock in the reaction zone, wherein flow direction of the cooling gas stream is co-current with the flow direction of the feed stock in the reaction zone, wherein the cooling gas stream is formed by evaporating the methanol feed stock prior to the introduction into the cooling space. a) providing a methanol containing feed stock; b) introducing the feed stock into a reaction zone within a gas cooled dimethyl ether reactor and passing the feed stock through the reaction zone; c) introducing a cooling gas stream into a cooling space within the gas cooled dimethyl ether reactor; d) reacting the feed stock in the reaction zone in presence of a catalyst being active in the dehydration of methanol to dimethyl ether to obtain a reactor effluent comprising dimethyl ether; e) passing the cooling gas stream through the cooling space in indirect heat exchanging relationship with the feed stock in the reaction zone, wherein flow direction of the cooling gas stream is co-current with the flow direction of the feed stock in the reaction zone, wherein the cooling gas stream is formed by evaporating the methanol feed stock prior to the introduction into the cooling space.
A plastisol composition, comprising: (i) a plasticizer; (ii) a polymeric resin provided in the form of particulates and dispersed within said plasticizer; and (iii) one or more hydrolyzable organosilicon compounds ("HOC"), wherein the one or more hydrolyzable organosilicon compounds comprise a cross-linkable amine functional dialkylpolysiloxane. (i) a plasticizer; (ii) a polymeric resin provided in the form of particulates and dispersed within said plasticizer; and (iii) one or more hydrolyzable organosilicon compounds ("HOC"), wherein the one or more hydrolyzable organosilicon compounds comprise a cross-linkable amine functional dialkylpolysiloxane.
A valve assembly comprising: an outer housing comprising a proximal cavity and a distal cavity joined by a canal; an inner housing configured for longitudinal movement within the distal cavity, the inner housing comprising a central boss comprising a through bore to direct passage of fluid through the inner housing; a reversibly deformable sealing pin positioned within the central boss, the sealing pin comprising a proximal base and a distal tip, wherein the sealing pin is configured to deform when applying a sufficient force proximally against the distal tip and substantially reverse deformation upon release of the force, for mating a distal fluid line having a spike valve to the inner housing; further wherein flow of fluid through the valve assembly is regulated at the proximal base of the sealing pin; characterized in that longitudinal movement of the inner housing distally moves the central boss away from the sealing pin, which opens the valve assembly, and longitudinal movement of the inner housing proximally moves the central boss towards and against the sealing pin to close the valve assembly. an outer housing comprising a proximal cavity and a distal cavity joined by a canal; an inner housing configured for longitudinal movement within the distal cavity, the inner housing comprising a central boss comprising a through bore to direct passage of fluid through the inner housing; a reversibly deformable sealing pin positioned within the central boss, the sealing pin comprising a proximal base and a distal tip, wherein the sealing pin is configured to deform when applying a sufficient force proximally against the distal tip and substantially reverse deformation upon release of the force, for mating a distal fluid line having a spike valve to the inner housing; further wherein flow of fluid through the valve assembly is regulated at the proximal base of the sealing pin; characterized in that longitudinal movement of the inner housing distally moves the central boss away from the sealing pin, which opens the valve assembly, and longitudinal movement of the inner housing proximally moves the central boss towards and against the sealing pin to close the valve assembly.
A system for delivering neurostimulation to a body having a vagus nerve and a laryngeal muscle, the system comprising: a stimulation output circuit configured to deliver neurostimulation pulses to the vagus nerve; an evoked response detection circuit configured to receive a physiological signal indicative of evoked responses being physiologic events evoked by the neurostimulation pulses, control timing of one or more detection windows, and detect the evoked responses by comparing the physiological signal to one or more detection thresholds during the one or more detection windows; and a control circuit configured to control the delivery of the neurostimulation pulses using a stimulation intensity, the control circuit including; a sensing parameter adjuster configured to adjust the one or more detection thresholds using the detected evoked responses; a sensing adjustment timer configured to control timing of the adjustment of the one or more detection thresholds according to a specified schedule; a stimulation parameter adjustor configured to adjust the stimulation intensity using the detected evoked responses; and a stimulation adjustment timer configured to time the adjustment of the stimulation intensity using the detected evoked responses according to a specified schedule. a stimulation output circuit configured to deliver neurostimulation pulses to the vagus nerve; an evoked response detection circuit configured to receive a physiological signal indicative of evoked responses being physiologic events evoked by the neurostimulation pulses, control timing of one or more detection windows, and detect the evoked responses by comparing the physiological signal to one or more detection thresholds during the one or more detection windows; and a control circuit configured to control the delivery of the neurostimulation pulses using a stimulation intensity, the control circuit including; a sensing parameter adjuster configured to adjust the one or more detection thresholds using the detected evoked responses; a sensing adjustment timer configured to control timing of the adjustment of the one or more detection thresholds according to a specified schedule; a stimulation parameter adjustor configured to adjust the stimulation intensity using the detected evoked responses; and a stimulation adjustment timer configured to time the adjustment of the stimulation intensity using the detected evoked responses according to a specified schedule.
Method for preparing a spinning solution for producing a polymer fibre, in particular a p-aramid fibre, wherein a solvent is added to a monomer, prepolymer, polymer additives or a corresponding mixture in a kneader mixer, the components are mixed, melted, homogenised and/or degassed and the mixture in then discharged, characterised in that the monomer, prepolymer, polymer or a corresponding mixture is force-fed by means of a force-feed device into the kneader mixer, wherein the force-feed device is a conveyor device which is installed upstream of the kneading mixer and has at least one conveying screw (5, 5.1, 5.2) having different pitches (P 1, P 2), into which the monomer, prepolymer, polymer or a corresponding mixture is introduced and in which force/pressure is built up towards the kneading mixer, the product is compacted or compressed and is then fed into the kneader mixer virtually without dead space.
A method for the plasma treatment of workpieces in which the workpiece is inserted into a chamber of a treatment station, wherein said chamber can be evacuated at least in part, and in which the workpiece is positioned within the treatment station by a retaining element, characterised in that the workpiece is formed like a bottle and, to seal an interior region of the workpiece, a sleeve-type sealing element is positioned relative to a chamber bottom in such a way that the positioning is made in a vertical direction and that the sealing element comprises a ring seal which, when being in the sealed state, is driven against an outlet surface of a threaded region of the workpiece that is formed like a bottle, and that, prior to inserting the workpiece into the chamber, the sealing element is moved down, then the workpiece is transferred to the retaining element and, subsequently, the sealing element is moved up again.
A SGK1 inhibitor for use in a method for treating a subject for Long QT syndrome, said method comprising administering to the subject a therapeutically effective amount of at least one SGK1 inhibitor.
A pocket-emptying device for a vehicle door trim, comprising a tray comprising a concave housing and having a peripheral edge extending transversely with respect to the edge of the housing, said pocket-emptying device for the door trim being intended to be fixed to a door trim and to be sandwiched between said door trim and a door panel, in particular a door lining, in a vehicle door, said vacuum device A pocket for the lining of a vehicle door being characterized in that it comprises at least one reinforcing and connecting element (41, 42, 43), originating from the material of the pocket-emptying device and extending from the peripheral edge, said at least one reinforcing and connecting element (41, 42, 43) being intended to come into mechanical contact with the door lining and to be fixed by welding to said door lining, said at least one reinforcing and connecting element (41, 42, 43) extending from the peripheral edge, orthogonally to the plate, said at least one reinforcing and connecting element (41, 42, 43) being intended to run along a lower portion of a side wall of the door trim.
A method of controlling a doubly-fed electric generator with a frequency converter comprising a torque and flux controller, which frequency converter is connected to a rotor of the generator, characterized by the method comprising steps of: determining a rotor flux, determining a stator flux, calculating a stator flux positive sequence component from the stator flux, calculating a rotor flux amplitude reference by using the stator flux positive sequence component, calculating a rotor flux error from the rotor flux amplitude reference and the rotor flux, converting the stator flux positive sequence component from a stator reference frame to a rotor reference frame, calculating an estimated torque by using the stator flux positive sequence component in the rotor reference frame, calculating a torque error from the estimated torque and a torque reference, and selecting a voltage vector for steering the rotor flux by using the rotor flux, the torque error and the rotor flux error. determining a rotor flux, determining a stator flux, calculating a stator flux positive sequence component from the stator flux, calculating a rotor flux amplitude reference by using the stator flux positive sequence component, calculating a rotor flux error from the rotor flux amplitude reference and the rotor flux, converting the stator flux positive sequence component from a stator reference frame to a rotor reference frame, calculating an estimated torque by using the stator flux positive sequence component in the rotor reference frame, calculating a torque error from the estimated torque and a torque reference, and selecting a voltage vector for steering the rotor flux by using the rotor flux, the torque error and the rotor flux error.