mhurhangee/ep-ind-claims huggingface dataset:
Fuel supply system for motor applications supplied with gaseous fuels with pressure reducer comprising: - a pressure reducer, fluidly connected in input to a fuel tank containing compressed fuel at an input pressure (Pi), and suitable for supplying said fuel in output, in the gas phase, to an internal combustion engine, at a delivery pressure (Pm) lower than the input pressure (Pi), - at least one exchanger fluid passing through at least one conveying duct so as to at least partially lap a portion of a body of the pressure reducer to increase the temperature of said body and simultaneously reduce the temperature of said exchanger fluid, wherein said conveying duct is provided with at least an adjustment mean suitable to regulate the flow rate of the exchanger fluid that laps the body of the pressure reducer, so as to bring the body of the pressure reducer to a temperature higher than a predetermined minimum value, characterised in that said at least one conveying duct comprises a ventilation duct of an air conditioning system of the vehicle. - a pressure reducer, fluidly connected in input to a fuel tank containing compressed fuel at an input pressure (Pi), and suitable for supplying said fuel in output, in the gas phase, to an internal combustion engine, at a delivery pressure (Pm) lower than the input pressure (Pi), - at least one exchanger fluid passing through at least one conveying duct so as to at least partially lap a portion of a body of the pressure reducer to increase the temperature of said body and simultaneously reduce the temperature of said exchanger fluid, wherein said conveying duct is provided with at least an adjustment mean suitable to regulate the flow rate of the exchanger fluid that laps the body of the pressure reducer, so as to bring the body of the pressure reducer to a temperature higher than a predetermined minimum value, characterised in that said at least one conveying duct comprises a ventilation duct of an air conditioning system of the vehicle.
A delivery system for percutaneously deploying a stent, the system comprising: an inner shaft assembly; an attachment mechanism coupled to the inner shaft assembly and configured to selectively engage the stent; a delivery sheath capsule slidably disposed over the inner shaft assembly and configured to compressively contain the stent engaged with the attachment mechanism; wherein the attachment mechanism is adapted to pivot relative to the inner shaft assembly as the delivery sheath is retracted. an inner shaft assembly; an attachment mechanism coupled to the inner shaft assembly and configured to selectively engage the stent; a delivery sheath capsule slidably disposed over the inner shaft assembly and configured to compressively contain the stent engaged with the attachment mechanism; wherein the attachment mechanism is adapted to pivot relative to the inner shaft assembly as the delivery sheath is retracted.
An automation technology field device for use in a potentially explosive atmosphere, having: - Two connection terminals for connecting a two-wire cable via which current can be supplied; - A sensor and/or actuator element for detecting and/or supplying a process variable; - Field device electronics (32, 34, 36, 38) connected to the connection terminals to which the current (Is) which can be supplied via the two-wire cable is supplied and which are configured to provide a power supply for the field device using the supplied current (Is) and further to transmit and/or receive the process variable detected by the sensor element and/or a process variable to be provided by the actuator element via the two-wire cable; - An Ex protection unit as part of the field device electronics, which is integrated in a current path between the two connection terminals, in order to limit a possible short-circuit current and which has at least two diodes in series and at least one resistor connected in parallel to the at least two diodes. - Two connection terminals for connecting a two-wire cable via which current can be supplied; - A sensor and/or actuator element for detecting and/or supplying a process variable; - Field device electronics (32, 34, 36, 38) connected to the connection terminals to which the current (Is) which can be supplied via the two-wire cable is supplied and which are configured to provide a power supply for the field device using the supplied current (Is) and further to transmit and/or receive the process variable detected by the sensor element and/or a process variable to be provided by the actuator element via the two-wire cable; - An Ex protection unit as part of the field device electronics, which is integrated in a current path between the two connection terminals, in order to limit a possible short-circuit current and which has at least two diodes in series and at least one resistor connected in parallel to the at least two diodes.
A constricting belt for a hygienic device for constricting vessels, which is configured to be connected by means of a lock to form a closed circular belt, wherein the constricting belt consists of a textile-free material and the constricting belt is provided with an anti-friction coating by fluorination of its surface.
Rubber mixture comprising at least the following constituents: - 15 to 55 phr of at least one natural polyisoprene and/or 15 to 55 phr of at least one synthetic polyisoprene and - 15 to 85 phr of at least one polybutadiene and - 60 to 100 phr of at least one carbon black and - 1 to 10 phr of at least one antiozonant wax, wherein the antiozonant wax comprises unbranched hydrocarbons having the following chain length distribution composed of at least the three regions A and B and C: i. Region A: hydrocarbons having 26 to 31 carbon atoms ii. Region B: hydrocarbons having 32 to 36 carbon atoms iii. Region C: hydrocarbons having 37 to 47 carbon atoms, wherein the relative proportions of the regions of A:B:C are 0.7 to 1.5:1:0.6 to 1.4. - 15 to 55 phr of at least one natural polyisoprene and/or 15 to 55 phr of at least one synthetic polyisoprene and - 15 to 85 phr of at least one polybutadiene and - 60 to 100 phr of at least one carbon black and - 1 to 10 phr of at least one antiozonant wax, wherein the antiozonant wax comprises unbranched hydrocarbons having the following chain length distribution composed of at least the three regions A and B and C: i. Region A: hydrocarbons having 26 to 31 carbon atoms ii. Region B: hydrocarbons having 32 to 36 carbon atoms iii. Region C: hydrocarbons having 37 to 47 carbon atoms, wherein the relative proportions of the regions of A:B:C are 0.7 to 1.5:1:0.6 to 1.4. i. Region A: hydrocarbons having 26 to 31 carbon atoms ii. Region B: hydrocarbons having 32 to 36 carbon atoms iii. Region C: hydrocarbons having 37 to 47 carbon atoms, wherein the relative proportions of the regions of A:B:C are 0.7 to 1.5:1:0.6 to 1.4.
Adherent stromal cells of a tissue selected from the group consisting of placenta and adipose tissue for use in treating (a) a condition selected from the group consisting of loss of blood, anemia, autoimmune disorders, arthritis, Multiple Sclerosis, graft vs. host disease (GvHD), autoimmune encephalomyelitis, systemic lupus erythematosus, rheumatoid arthritis, systemic sclerosis, Sjorgen's syndrome, Myasthenia Gravis, Guillain-Barre Syndrome, Hashimoto's Thyroiditis, Graves's Disease, Insulin-dependent Diabetes Mellitus (IDDM) and Inflammatory Bowel Disease; or (b) a condition that may benefit from the facilitation of hematopoietic stem cell engraftment in a subject, wherein said adherent stromal cells are obtained from a three dimensional culture. (a) a condition selected from the group consisting of loss of blood, anemia, autoimmune disorders, arthritis, Multiple Sclerosis, graft vs. host disease (GvHD), autoimmune encephalomyelitis, systemic lupus erythematosus, rheumatoid arthritis, systemic sclerosis, Sjorgen's syndrome, Myasthenia Gravis, Guillain-Barre Syndrome, Hashimoto's Thyroiditis, Graves's Disease, Insulin-dependent Diabetes Mellitus (IDDM) and Inflammatory Bowel Disease; or (b) a condition that may benefit from the facilitation of hematopoietic stem cell engraftment in a subject, wherein said adherent stromal cells are obtained from a three dimensional culture.
An optical assembly comprising: a crystalline substrate having a top planar surface and a crystalline plane angle; at least one groove defined in said top planar surface and having side walls 104 extending from an edge of said substrate to a terminal end, said groove having a first facet at said terminal, said first facet having a first angle relative to said top planar surface, said first facet being reflective; an optical conduit having an optical axis and an end face optically coupled with said first facet; and a waveguide, characterised by a diffractive optical element, DOE, disposed above said first facet and configured to couple light between said waveguide and said optical conduit as reflected by said first facet, and an optical component optically coupled to said waveguide, said optical component having a bottom surface comprising at least one stop for axially positioning said optical conduit in said groove. a crystalline substrate having a top planar surface and a crystalline plane angle; at least one groove defined in said top planar surface and having side walls 104 extending from an edge of said substrate to a terminal end, said groove having a first facet at said terminal, said first facet having a first angle relative to said top planar surface, said first facet being reflective; an optical conduit having an optical axis and an end face optically coupled with said first facet; and a waveguide, characterised by a diffractive optical element, DOE, disposed above said first facet and configured to couple light between said waveguide and said optical conduit as reflected by said first facet, and an optical component optically coupled to said waveguide, said optical component having a bottom surface comprising at least one stop for axially positioning said optical conduit in said groove.
Use of a compound as a gelator, wherein the compound is selected from the following compounds M1, M2, M3, M4, M5, M6, M8, M10, G3 and G8: R 1 = CH 3 O, R 2 = H R 1 = CH 3 (CH 2) 3 O, R 2 = H R 1 = CH 3 (CH 2) 3 O, R 2 = H R 1 = CH 3 (CH 2) 7 O, R 2 = H R 1 = CH 3 (CH 2) 9 O, R 2 = H R 1 = CH 3 (CH 2) 11 O, R 2 = H R 1 = 3-Butenyl-O-, R 2 = H R 1 = 2-Ethylhexyl-O-, R 2 = H R 1 = CH 3 (CH 2) 3 O-, R 2 = H R 1 = CH 3 (CH 2) 11 O-, R 2 = H.
A lubrication system comprising: a lubricant supply tank; a lubricant feed pump having a rotatable feed pump shaft, said lubricant feed pump configured to draw a lubricant from said lubricant supply tank and discharge a lubricant feed; one or more lubricant jets configured to direct the lubricant feed to one or more components; one or more scavenge pump drive motors configured to drive a rotatable scavenge pump shaft; and one or more scavenge pumps, the scavenge pumps shaft configured to drive the one or more scavenge pumps; wherein the scavenge pump shaft is configured to rotate independently of the feed pump shaft; wherein the one or more scavenge pump drive motors is configured to be hydraulically driven by the lubricant feed the one or more scavenge pump drive motors further configured to reduce a pressure of the lubricant feed and discharges the lubricant feed as a reduced pressure lubricant feed; and characterized in that the lubricant feed pump is configured to drive a first scavenge pump drive motor and a second scavenge pump drive motor included in the one or more scavenge pump drive motors, and/or wherein the scavenge pump shaft is configured to drive a plurality of scavenge pumps included in the one or more scavenge pumps. a lubricant supply tank; a lubricant feed pump having a rotatable feed pump shaft, said lubricant feed pump configured to draw a lubricant from said lubricant supply tank and discharge a lubricant feed; one or more lubricant jets configured to direct the lubricant feed to one or more components; one or more scavenge pump drive motors configured to drive a rotatable scavenge pump shaft; and one or more scavenge pumps, the scavenge pumps shaft configured to drive the one or more scavenge pumps; wherein the scavenge pump shaft is configured to rotate independently of the feed pump shaft; wherein the one or more scavenge pump drive motors is configured to be hydraulically driven by the lubricant feed the one or more scavenge pump drive motors further configured to reduce a pressure of the lubricant feed and discharges the lubricant feed as a reduced pressure lubricant feed; and characterized in that the lubricant feed pump is configured to drive a first scavenge pump drive motor and a second scavenge pump drive motor included in the one or more scavenge pump drive motors, and/or wherein the scavenge pump shaft is configured to drive a plurality of scavenge pumps included in the one or more scavenge pumps.
A transportation refrigeration unit TRU and power system comprising: a compressor configured to compress a refrigerant, the compressor having compressor motor configured to drive the compressor; an evaporator heat exchanger operatively coupled to the compressor; an evaporator fan configured to provide return airflow from a return air intake and flow the return airflow over the evaporator heat exchanger; a return air temperature RAT sensor disposed in the return airflow and configured to measure the temperature of the return airflow; a TRU controller operably connected to the RAT sensor and configured to execute a process to determine an AC power requirement for the TRU based on at least the RAT; a generator power converter, the generator power converter configured to receive a first DC power provided by a DC generator and transmit a second DC power; an energy storage system configured to receive the second DC power and also provide a first a three phase AC power; and a power management system configured to receive the first three phase AC power and direct at least a portion of the first three phase AC power to the TRU based at least in part on the AC power requirement, and characterized in that, the energy storage system is also configured to receive a second three phase AC power. a compressor configured to compress a refrigerant, the compressor having compressor motor configured to drive the compressor; an evaporator heat exchanger operatively coupled to the compressor; an evaporator fan configured to provide return airflow from a return air intake and flow the return airflow over the evaporator heat exchanger; a return air temperature RAT sensor disposed in the return airflow and configured to measure the temperature of the return airflow; a TRU controller operably connected to the RAT sensor and configured to execute a process to determine an AC power requirement for the TRU based on at least the RAT; a generator power converter, the generator power converter configured to receive a first DC power provided by a DC generator and transmit a second DC power; an energy storage system configured to receive the second DC power and also provide a first a three phase AC power; and a power management system configured to receive the first three phase AC power and direct at least a portion of the first three phase AC power to the TRU based at least in part on the AC power requirement, and characterized in that, the energy storage system is also configured to receive a second three phase AC power.
A grooving device comprising grooving means (7, 8, 10, 11) for realizing a grooving line on a sheet, said grooving means (7, 8, 10, 11) comprising: - A first and a second blade-holder support arranged one opposite the other in such a way as to allow the application of a first and of a second blade, one facing the other according to a pre-determined penetration angle ( α) in the sheet, said first and said second blade-holder support being sliding in such a way as to allow a lowering/lifting of the blades that can be applied on them; - An operating device (4, 5, 6) for controlling the sliding of said first and second blade-holder support, said operating device comprising a piston that slides in the grooving device and a pair of fixing pins (5, 6), each one fixed on one part to a respective blade-holder support; - characterized in that each pin is inserted and blocked into an insertion seat obtained in the respective blade-holder support, each pin being exiting on the opposite part, for a part of its length, from said insertion seat into which it is inserted, said fixing pins being arranged according to a pre-determined inclination angle and the base of the piston is worked in such a way as to present two inclined faces in contact with said exiting part of the fixing pins, said fixing pins are of such a length that their exiting parts are maintained in continuous contact in a sliding manner along the inclined faces of the piston during the vertical stroke (h) of the piston from the lowered position to the lifted position and vice-versa. - A first and a second blade-holder support arranged one opposite the other in such a way as to allow the application of a first and of a second blade, one facing the other according to a pre-determined penetration angle ( α) in the sheet, said first and said second blade-holder support being sliding in such a way as to allow a lowering/lifting of the blades that can be applied on them; - An operating device (4, 5, 6) for controlling the sliding of said first and second blade-holder support, said operating device comprising a piston that slides in the grooving device and a pair of fixing pins (5, 6), each one fixed on one part to a respective blade-holder support; - characterized in that each pin is inserted and blocked into an insertion seat obtained in the respective blade-holder support, each pin being exiting on the opposite part, for a part of its length, from said insertion seat into which it is inserted, said fixing pins being arranged according to a pre-determined inclination angle and the base of the piston is worked in such a way as to present two inclined faces in contact with said exiting part of the fixing pins, said fixing pins are of such a length that their exiting parts are maintained in continuous contact in a sliding manner along the inclined faces of the piston during the vertical stroke (h) of the piston from the lowered position to the lifted position and vice-versa.
A readdressing circuit for providing data communications over a data line and a clock line between at least one master device and multiple slave devices, comprising: a data input node for receiving a data signal transferred over the data line and including an address word produced by the master device, a data output node coupled to the multiple slave devices, an address generator for storing a multi-bit fixed offset value, the address generator being responsive to the address word at the data input node for generating multiple unique addresses for the multiple slave devices, and an address transmit detection circuit for allowing the multiple unique addresses to be provided at the data output node when the address word is detected at the data input node, characterized in that: - the address transmit detection circuit being for preventing an output signal of the address generator from being supplied to the data output node when no address word is detected at the data input node. a data input node for receiving a data signal transferred over the data line and including an address word produced by the master device, a data output node coupled to the multiple slave devices, an address generator for storing a multi-bit fixed offset value, the address generator being responsive to the address word at the data input node for generating multiple unique addresses for the multiple slave devices, and an address transmit detection circuit for allowing the multiple unique addresses to be provided at the data output node when the address word is detected at the data input node, characterized in that: - the address transmit detection circuit being for preventing an output signal of the address generator from being supplied to the data output node when no address word is detected at the data input node. - the address transmit detection circuit being for preventing an output signal of the address generator from being supplied to the data output node when no address word is detected at the data input node.
A logo lamp device (100, 200, 300), in particular for a vehicle, comprising • an inner housing (104, 204, 304) and an outer housing, the inner housing (104, 204, 304) and the outer housing having an open end; • an encapsulant configured opposite to the open end of the inner housing (104, 204, 304) and the outer housing; • a printed circuit board enclosed within the inner housing (104, 204, 304); • at least one light source connected to the PCB and enclosed within the inner housing (104, 204, 304); and • an optical assembly having plurality of lenses, wherein the plurality of lenses comprises at least one first lens (116, 216, 316) and at least one second lens; characterized by at least one retaining mechanism configured between the at least one first lens (116, 216, 316) and the inner housing (104, 204, 304), wherein the at least one first lens (116, 216, 316) is configured to push the at least one second lens against the inner housing (104, 204, 304). • an inner housing (104, 204, 304) and an outer housing, the inner housing (104, 204, 304) and the outer housing having an open end; • an encapsulant configured opposite to the open end of the inner housing (104, 204, 304) and the outer housing; • a printed circuit board enclosed within the inner housing (104, 204, 304); • at least one light source connected to the PCB and enclosed within the inner housing (104, 204, 304); and • an optical assembly having plurality of lenses, wherein the plurality of lenses comprises at least one first lens (116, 216, 316) and at least one second lens;
A molten plastic delivery system comprising: a plurality of plates; a manifold defining a network of channels for conveying a molten plastic from a manifold inlet to a manifold outlet, the manifold housed in the plurality of plates; a nozzle defining a nozzle channel having an upstream nozzle channel opening and a downstream nozzle channel opening, the upstream nozzle channel opening in fluid communication with the manifold outlet; a valve pin received in the nozzle channel and reciprocable within the nozzle channel between a closed position to prevent the molten plastic from passing through the downstream nozzle channel opening and an open position to allow the molten plastic to pass through the downstream nozzle channel opening; a bell crank having a first and second arms (190, 195) connected at and rotatable about a pivot, the first arm coupled to the valve pin; characterised by a push-pull cable coupled to the second arm such that angularly pushing the second arm about the pivot via the push-pull cable moves the valve pin to the open position and angularly pulling the second arm about the pivot via the push-pull cable moves the valve pin to the closed position. a plurality of plates; a manifold defining a network of channels for conveying a molten plastic from a manifold inlet to a manifold outlet, the manifold housed in the plurality of plates; a nozzle defining a nozzle channel having an upstream nozzle channel opening and a downstream nozzle channel opening, the upstream nozzle channel opening in fluid communication with the manifold outlet; a valve pin received in the nozzle channel and reciprocable within the nozzle channel between a closed position to prevent the molten plastic from passing through the downstream nozzle channel opening and an open position to allow the molten plastic to pass through the downstream nozzle channel opening; a bell crank having a first and second arms (190, 195) connected at and rotatable about a pivot, the first arm coupled to the valve pin; characterised by a push-pull cable coupled to the second arm such that angularly pushing the second arm about the pivot via the push-pull cable moves the valve pin to the open position and angularly pulling the second arm about the pivot via the push-pull cable moves the valve pin to the closed position.