mhurhangee/ep-ind-claims huggingface dataset:
A front passenger seat airbag device (10, 90, 110, 130, 150, 170, 190, 210) comprising: a module case (26, 152) configured to be disposed on a back side of an airbag door provided on a front passenger seat side of an instrument panel; a front passenger seat airbag configured such that, in a state folded into a rectangular shape as viewed from the airbag door side and stowed inside the module case (26, 152), a folded height of a first airbag section positioned at a vehicle width direction outer side is lower than a folded height of a second airbag section positioned at a vehicle width direction inner side of the first airbag section, and a folded width of the first airbag section and a folded width of the second airbag section along the vehicle width direction as viewed from the airbag door side are substantially the same; an inflator that is disposed at a bottom portion side of the module case (26, 152) and that on actuation supplies gas into the front passenger seat airbag; and a raising member (84, 92, 112, 132, 152, 172, 192, 218) that is disposed further toward a bottom portion of the module case (26, 152) than the front passenger seat airbag, and that is configured to raise a height of a first support face (80, 102, 122, 182, 238) supporting a lower face of the first airbag section to be higher than a height of a second support face (82, 106, 124, 160, 206, 240) supporting a lower face of the second airbag section, such that a height of an upper face of the first airbag section in a folded state is substantially aligned with a height of an upper face of the second airbag section in a folded state. a module case (26, 152) configured to be disposed on a back side of an airbag door provided on a front passenger seat side of an instrument panel; a front passenger seat airbag configured such that, in a state folded into a rectangular shape as viewed from the airbag door side and stowed inside the module case (26, 152), a folded height of a first airbag section positioned at a vehicle width direction outer side is lower than a folded height of a second airbag section positioned at a vehicle width direction inner side of the first airbag section, and a folded width of the first airbag section and a folded width of the second airbag section along the vehicle width direction as viewed from the airbag door side are substantially the same; an inflator that is disposed at a bottom portion side of the module case (26, 152) and that on actuation supplies gas into the front passenger seat airbag; and a raising member (84, 92, 112, 132, 152, 172, 192, 218) that is disposed further toward a bottom portion of the module case (26, 152) than the front passenger seat airbag, and that is configured to raise a height of a first support face (80, 102, 122, 182, 238) supporting a lower face of the first airbag section to be higher than a height of a second support face (82, 106, 124, 160, 206, 240) supporting a lower face of the second airbag section, such that a height of an upper face of the first airbag section in a folded state is substantially aligned with a height of an upper face of the second airbag section in a folded state.
A cord configured to connect a headset to an electronic device and to provide input for controlling the electronic device, comprising: a resistive member (54;56) configured to provide a tactile bending resistance; a sensor means for determining a bend of the resistive member, wherein the determined bend includes a degree of bend of the resistive member (59;56); wherein the resistive member (54;56) is provided within a first input region of the cord, and wherein the sensor means is configured to determine a bend of the resistive member within the first input region; a second sensor means configured to determine a manipulation of a second input region of the cord; wherein the sensor means is configured to determine a bend of the first input region in response to the second sensor means determining manipulation of the second input region; signaling means for providing a signal to the electronic device when the determined degree of bend of the resistive member (59;56) is beyond a first bending threshold. a resistive member (54;56) configured to provide a tactile bending resistance; a sensor means for determining a bend of the resistive member, wherein the determined bend includes a degree of bend of the resistive member (59;56); wherein the resistive member (54;56) is provided within a first input region of the cord, and wherein the sensor means is configured to determine a bend of the resistive member within the first input region; a second sensor means configured to determine a manipulation of a second input region of the cord; wherein the sensor means is configured to determine a bend of the first input region in response to the second sensor means determining manipulation of the second input region; signaling means for providing a signal to the electronic device when the determined degree of bend of the resistive member (59;56) is beyond a first bending threshold.
Method for determining changes of the longitudinal dynamic behaviour, in particular of an undercarriage of a rail vehicle, in order to identify a current travelling condition of the rail vehicle, characterised in that by means of a cybernetic observer, from an input signal (u) that is known or that has been determined by measurement technology and at least one measurement signal (y) of the rail vehicle observed as an observed real reference system, variables that cannot be measured by a system model of the rail vehicle and that characterise the longitudinal dynamic behaviour are reconstructed and evaluated, wherein the said at least one measurement signal (y) of the rail vehicle observed and a correspondingly reconstructed measurement signal (ŷ) of the system model are compared, and the deviation determined by way of the comparison is recursively tracked with a regulator so as to minimise the deviation determined.
Fitting (1, 1A, 1B) for a medical device suitable for a parenteral or enteral infusion and transfusion comprising a first hollow part (1 a) adapted to connect with one of the tubes of a bag, a second hollow part (1 b) suitable for being engaged with a cannula and a pierceable membrane (4, 4A, 4B) adapted to separate the two parts (1 a, 1 b) characterized in that: - the first part (1 a), - the second part (1 b), - the pierceable membrane (4, 4A, 4B), - and an aggregated movable cap (2, 2 a) suitable for closing the aperture of the second part (1 b) and joined to the fitting body by means of a union tab, are all molded together in a single piece. - the first part (1 a), - the second part (1 b), - the pierceable membrane (4, 4A, 4B), - and an aggregated movable cap (2, 2 a) suitable for closing the aperture of the second part (1 b) and joined to the fitting body by means of a union tab, are all molded together in a single piece.
Method for the in vitro diagnosis of colorectal cancer by determining the increase of the concentration, relative to the reference values determined for healthy patients, of protein Prodefensin-A6 marker in a biological sample taken from a patient suspected of having colorectal cancer, using a monoclonal antibody specific for the Prodefensin-A6 recognizing the epitope 1 of SEQ ID N°6.
Chassis component for a wheel suspension, comprising a strut arrangement which has at least one strut and which is configured as a profile part having an open cross-sectional shape, wherein the at least one strut comprises a profile base and two wall portions emanating therefrom, wherein a joint point is provided on at least one end of the strut for receiving two movably interconnected joint parts (15, 24, 27), namely a first joint part (15, 27) having a spherical joint body (16, 28) and a second joint part rotatably and/or pivotably receiving the joint body (16, 28), wherein the wall portions have, in the region of the at least one joint point, a first joint receiving opening and a second joint receiving opening which are arranged opposite one another, wherein a cylindrical sleeve is pressed in between the first joint receiving opening and the second joint receiving opening and spaces apart the wall portions situated opposite one another, characterized in that at least one sensor element (21, 33) and the joint body (16, 28) are inserted into the pressed-in sleeve, wherein the sleeve, the sensor element (21, 33) and the joint body (16, 28) inserted therein are integrated into a joint housing which is produced by overmoulding and which forms the second joint part.
A handling system for receptor devices of solar energy suitable for allowing the handling of said devices on a first axis and on a second axis, substantially orthogonal with respect to each other, said system being constrainable on fixed structures composed of supporting poles kept in position by a network of tie-rods, comprising a main tube rotating around said first axis, to which a plurality of secondary tubes are connected, also rotating around their own axis, fixed substantially perpendicularly to the main tube, the receptor devices being fixed on said secondary tubes, the main rotating tube comprising both the handling mechanism around the first axis and the handling mechanism around the second axis activated by a respective first motor and second motor, the handling mechanism around the second axis comprising a series of racks positioned longitudinally inside the main tube which move along said first axis activated by said second motor also positioned inside said main tube, which, along its route, encounters, in correspondence with said racks, a plurality of gears, each engaged on a secondary tube in the intersection position of these with the main tube, allowing the rotation of said second axis, characterized in that the handling mechanism around the first axis comprises said first motor, positioned inside said main tube, which is interfaced with a reducing mechanism in which there is a central shaft which receives the rotation of said motor and at least a pair of rotating satellite pinions (44,44'), symmetrical with respect to said shaft and rotating in compliance with each other, a tubular flange being engaged on said end of the main tube, which is connected to said fixed structure, provided on the internal circumference with a round rack which encounters the pair of satellite pinions allowing the rotation of the main tube around the first axis, the first motor being positioned with its axis perpendicular to the first longitudinal axis of the main tube.
A process for manufacturing an electric cable, comprising the phases of: - feeding a conductor at a predetermined feeding speed; - extruding a inner semiconductive layer on the outer surface of said conductor; - extruding a thermoplastic insulating layer in a position radially external to the conductor; - extruding a outer semiconductive layer around said insulating layer thereby obtaining a cable core comprising said conductor, said inner semiconductive layer, said thermoplastic insulating layer and said outer semiconductive layer; - cooling said cable core; - forming a circumferentially closed metal shield around said cable core; wherein the conductor is continuously fed, so that the time occurring between the end of the cooling phase and the beginning of the shield forming phase is inversely proportional to the feeding speed of the conductor, wherein said method further comprises the phase of applying an impact protecting element around said circumferentially closed metal shield, said phase of applying said impact protecting element comprising: - applying a non-expanded polymeric layer around said metal shield, and - applying an expanded polymeric layer around the non-expanded polymeric layer. - feeding a conductor at a predetermined feeding speed; - extruding a inner semiconductive layer on the outer surface of said conductor; - extruding a thermoplastic insulating layer in a position radially external to the conductor; - extruding a outer semiconductive layer around said insulating layer thereby obtaining a cable core comprising said conductor, said inner semiconductive layer, said thermoplastic insulating layer and said outer semiconductive layer; - cooling said cable core; - forming a circumferentially closed metal shield around said cable core; - applying a non-expanded polymeric layer around said metal shield, and - applying an expanded polymeric layer around the non-expanded polymeric layer.
A system for eliminating secondary fuses in high power solid state power controllers, the system comprises: a field effect transistor, FET, array, wherein the FET array includes a plurality of FETs, wherein a channel coupling the system to a load is configured to remain operational after a FET of the plurality of FETs has blown open; a gate driver coupled to the FET array; a gate switch power supply; a gate switch coupled between the gate switch power supply and the gate driver; a primary controller coupled to the gate driver, and a secondary controller, coupled to between the gate switch and the gate driver, configured to monitor the power coming from the gate switch power supply and going through the gate switch in order to detect a failure mode; wherein the secondary controller is configured to control the gate switch to enable or disable power from the gate switch power supply to the gate driver, wherein the primary controller and the secondary controller are configured to receive common signals for controlling the FET array, wherein the secondary controller is configured to disable power to the gate driver based at least in part on detecting the failure mode; and wherein the secondary controller is further configured to restore the gate power responsive to resolving the failure mode. a field effect transistor, FET, array, wherein the FET array includes a plurality of FETs, wherein a channel coupling the system to a load is configured to remain operational after a FET of the plurality of FETs has blown open; a gate driver coupled to the FET array; a gate switch power supply; a gate switch coupled between the gate switch power supply and the gate driver; a primary controller coupled to the gate driver, and a secondary controller, coupled to between the gate switch and the gate driver, configured to monitor the power coming from the gate switch power supply and going through the gate switch in order to detect a failure mode; wherein the secondary controller is configured to control the gate switch to enable or disable power from the gate switch power supply to the gate driver, wherein the primary controller and the secondary controller are configured to receive common signals for controlling the FET array, wherein the secondary controller is configured to disable power to the gate driver based at least in part on detecting the failure mode; and wherein the secondary controller is further configured to restore the gate power responsive to resolving the failure mode.
Choke arrangement for sealing a sliding surface of a body movable in an axial direction, in particular a piston rod or a piston, of a piston compressor, the choke arrangement having in use a high-pressure side on the compression chamber side and a low-pressure side on the crank drive side, the choke arrangement comprising a plurality of annular sealing discs and a sealing disc holder, wherein the sealing disc holder has an L-shaped radial section, with a first leg extending in the axial direction and a second leg extending transversely to the axial direction, which legs (4, 5) together form the L-shaped radial section, the second leg being of annular design and having a bearing surface pointing in the direction of the high-pressure side, on which bearing surface the sealing discs are arranged stacked one on top of the other in the axial direction, the first leg being cylindrical and extending along the outer or inner circumference of the second leg from the bearing surface in the direction of the high-pressure side, the axial height of the first leg (H 4) being selected in such a manner that the sealing discs stacked on the bearing surface have axial play in use, the first leg having a plurality of gas passage openings, the first leg having a boundary surface pointing in the direction of the sealing discs, wherein, when the sealing discs are aligned coaxially with the first leg and the body to be sealed, a first annular gap is formed in each case between the boundary surface and the sealing discs, which annular gap is fluidically connected to the high-pressure side by the gas passage openings, and wherein a second annular gap is formed between the sliding surface of the body to be sealed and the sealing discs in each case, the wear-related enlargement of which is essentially limited by the radial width of the first annular gap.
An alternator comprising: • an alternator stator comprising: • a main secondary winding delivering an output voltage; • at least one auxiliary winding; and • an exciter field winding powered by the auxiliary winding(s); • a regulator for regulating the output voltage of the alternator; and • an alternator rotor comprising: • an exciter secondary winding; • a rotary field winding powered by the exciter secondary winding; and • a control circuit for controlling the power supply to the rotary field winding and configured to maintain the amplitude of the output voltage from the alternator at a predetermined level by controlling the power supply to the rotary field winding in response to a control signal coming from the voltage regulator, the auxiliary winding(s) generating a voltage because they are exposed to a varying magnetic field generated by the rotary field winding in rotation. • an alternator stator comprising: • a main secondary winding delivering an output voltage; • at least one auxiliary winding; and • an exciter field winding powered by the auxiliary winding(s); • a main secondary winding delivering an output voltage; • at least one auxiliary winding; and • an exciter field winding powered by the auxiliary winding(s); • a regulator for regulating the output voltage of the alternator; and • an alternator rotor comprising: • an exciter secondary winding; • a rotary field winding powered by the exciter secondary winding; and • a control circuit for controlling the power supply to the rotary field winding and configured to maintain the amplitude of the output voltage from the alternator at a predetermined level by controlling the power supply to the rotary field winding in response to a control signal coming from the voltage regulator, the auxiliary winding(s) generating a voltage because they are exposed to a varying magnetic field generated by the rotary field winding in rotation. • an exciter secondary winding; • a rotary field winding powered by the exciter secondary winding; and • a control circuit for controlling the power supply to the rotary field winding and configured to maintain the amplitude of the output voltage from the alternator at a predetermined level by controlling the power supply to the rotary field winding in response to a control signal coming from the voltage regulator, the auxiliary winding(s) generating a voltage because they are exposed to a varying magnetic field generated by the rotary field winding in rotation.
A method for forming an n-type contact electrode on an n-type semiconductor layer of a group III nitride single crystal, wherein said method includes the steps of; carrying out a heat treatment at a temperature of 800 °C or higher and 1200 °C or less after forming a first electrode metal layer comprising a metal layer of at least one selected from a group consisting of Ti, V, and Ta on said n-type semiconductor layer, and subsequently carrying out a heat treatment at a temperature of 700 °C or higher and 1000 °C or less after forming a second electrode metal layer including a highly conductive metal layer of metals having a work function of 4.0 eV to 4.8 eV, and a specific resistance of 1.5 x 10 -6 Ω·cm to 4.0 x 10 -6 Ω·cm on said first electrode metal layer.
Medical device comprising a tubular membrane having openings adapted to receive the ends of an injured nerve and a lumen to allow the regeneration of said nerve, wherein said tubular membrane comprises fibers of polyhydroxyalkanoate containing 3-hydroxybutyrate monomer units, said fibers having an average diameter comprised from 500 nm to 2000 nm; wherein the tubular membrane further comprises silver (Ag) nanowires coated by a binding agent; wherein the binding agent is selected from: a thiol R-SH, wherein R is a saturated or unsaturated, aliphatic and/or aromatic hydrocarbon group, having from 8 to 38 carbon atoms, optionally substituted with functional groups selected from: ester, amide, carboxyl, hydroxyl, amine groups; and a protein biopolymer containing -SH groups. wherein the tubular membrane further comprises silver (Ag) nanowires coated by a binding agent; wherein the binding agent is selected from: a thiol R-SH, wherein R is a saturated or unsaturated, aliphatic and/or aromatic hydrocarbon group, having from 8 to 38 carbon atoms, optionally substituted with functional groups selected from: ester, amide, carboxyl, hydroxyl, amine groups; and a protein biopolymer containing -SH groups. a thiol R-SH, wherein R is a saturated or unsaturated, aliphatic and/or aromatic hydrocarbon group, having from 8 to 38 carbon atoms, optionally substituted with functional groups selected from: ester, amide, carboxyl, hydroxyl, amine groups; and a protein biopolymer containing -SH groups.