mhurhangee/patent-ind-claim-en huggingface dataset:
A nozzle for a gas-cooled plasma arc torch , the nozzle comprising: a nozzle body having a hollow substantially cylindrical proximal end and a distal end that together define a nozzle body length and a longitudinal axis , the body including; an exit orifice defined by the distal end of the nozzle body ; a plenum within the nozzle body , the plenum extending from the proximal end of the nozzle body to a plenum floor , a distance from the plenum floor to the distal end defining a plenum floor thickness, and a distance from the plenum floor to the proximal end of the nozzle body defining a proximal end length; and a bore extending from the plenum floor to the exit orifice , the bore having a bore length and a bore width, wherein the nozzle body has a nozzle width in a direction transverse to the longitudinal axis , wherein the nozzle body length is greater than the nozzle width, and wherein a ratio of the proximal end length to the plenum floor thickness is less than 2.0. a nozzle body having a hollow substantially cylindrical proximal end and a distal end that together define a nozzle body length and a longitudinal axis , the body including; an exit orifice defined by the distal end of the nozzle body ; a plenum within the nozzle body , the plenum extending from the proximal end of the nozzle body to a plenum floor , a distance from the plenum floor to the distal end defining a plenum floor thickness, and a distance from the plenum floor to the proximal end of the nozzle body defining a proximal end length; and a bore extending from the plenum floor to the exit orifice , the bore having a bore length and a bore width, wherein the nozzle body has a nozzle width in a direction transverse to the longitudinal axis , wherein the nozzle body length is greater than the nozzle width, and wherein a ratio of the proximal end length to the plenum floor thickness is less than 2.0.
A lighting apparatus, comprising: a driver configured for converting an indoor power source to a driving current; a first branch , comprising multiple first LED modules , the multiple first LED modules being divided into multiple first segments , adjacent first segments being connected with multiple first nodes ; a second branch , comprising multiple second LED modules , the multiple second LED modules being divided into multiple second segments , adjacent second segments being connected with multiple second nodes ; a first switch selectively configured for connecting the driving current into the first branch ; a second switch selectively configured for connecting the driving current into the second branch ; multiple middle switches configured for selectively connecting the first nodes and second nodes ; a switch control unit , configured for controlling selections of the first switch , the second switch and the multiple middle switches for determining a conductive path of a selected set of LED modules selected from the multiple first segments and the multiple second segments for mixing a required optical parameter; the lighting apparatus being characterized in that the switch control unit is configured with a manual switch operated by a user, and the manual switch is configured to provide multiple options, each option corresponding to one conductive path of corresponding selected set of LED modules selected from the multiple first segments and the multiple second segments for mixing a required optical parameter. a driver configured for converting an indoor power source to a driving current; a first branch , comprising multiple first LED modules , the multiple first LED modules being divided into multiple first segments , adjacent first segments being connected with multiple first nodes ; a second branch , comprising multiple second LED modules , the multiple second LED modules being divided into multiple second segments , adjacent second segments being connected with multiple second nodes ; a first switch selectively configured for connecting the driving current into the first branch ; a second switch selectively configured for connecting the driving current into the second branch ; multiple middle switches configured for selectively connecting the first nodes and second nodes ; a switch control unit , configured for controlling selections of the first switch , the second switch and the multiple middle switches for determining a conductive path of a selected set of LED modules selected from the multiple first segments and the multiple second segments for mixing a required optical parameter; the lighting apparatus being characterized in that the switch control unit is configured with a manual switch operated by a user, and the manual switch is configured to provide multiple options, each option corresponding to one conductive path of corresponding selected set of LED modules selected from the multiple first segments and the multiple second segments for mixing a required optical parameter.
A pharmaceutical composition comprising EX527 for use in preventing and/or treating a human papilloma virus (HPV) induced tumour, wherein the pharmaceutical composition further comprises doxorubicin or cisplatin.
A method for preparing Diosmin, comprising: A) mixing an amide solvent, hesperidin, an alkaline reagent and iodine, and performing a heating reaction at 90°C to obtain Diosmin, wherein the amide solvent is selected from methylacetamide, ethylacetamide, dimethyloxamide, dimethylacetamide or dimethylformamide, wherein the alkaline reagent is alkali metal hydroxide, wherein the mass ratio of the alkaline reagent to hesperidin is (0.03-0.07):1, wherein the mass ratio of the iodine to hesperidin is (0.4-0.6):1. A) mixing an amide solvent, hesperidin, an alkaline reagent and iodine, and performing a heating reaction at 90°C to obtain Diosmin, wherein the amide solvent is selected from methylacetamide, ethylacetamide, dimethyloxamide, dimethylacetamide or dimethylformamide, wherein the alkaline reagent is alkali metal hydroxide, wherein the mass ratio of the alkaline reagent to hesperidin is (0.03-0.07):1, wherein the mass ratio of the iodine to hesperidin is (0.4-0.6):1. wherein the amide solvent is selected from methylacetamide, ethylacetamide, dimethyloxamide, dimethylacetamide or dimethylformamide, wherein the alkaline reagent is alkali metal hydroxide, wherein the mass ratio of the alkaline reagent to hesperidin is (0.03-0.07):1, wherein the mass ratio of the iodine to hesperidin is (0.4-0.6):1.
An installation structure for a vicinity information detection sensor , comprising: the vicinity information detection sensor that is configured to be mounted on an outer panel (12; 76; 99; 108) of a vehicle body and that includes a detector configured to be attached to a vehicle inner side of the outer panel (12; 76; 99; 108), and configured to radiate electromagnetic waves functioning as radar waves that detect vicinity information of a vehicle (10; 70; 90; 100), and a motor provided in the detector and configured to change a radiation direction of the electromagnetic waves; and a vibration absorbing member configured to be placed between the outer panel (12; 76; 99; 108) and the vicinity information detection sensor . the vicinity information detection sensor that is configured to be mounted on an outer panel (12; 76; 99; 108) of a vehicle body and that includes a detector configured to be attached to a vehicle inner side of the outer panel (12; 76; 99; 108), and configured to radiate electromagnetic waves functioning as radar waves that detect vicinity information of a vehicle (10; 70; 90; 100), and a motor provided in the detector and configured to change a radiation direction of the electromagnetic waves; and a detector configured to be attached to a vehicle inner side of the outer panel (12; 76; 99; 108), and configured to radiate electromagnetic waves functioning as radar waves that detect vicinity information of a vehicle (10; 70; 90; 100), and a motor provided in the detector and configured to change a radiation direction of the electromagnetic waves; and a vibration absorbing member configured to be placed between the outer panel (12; 76; 99; 108) and the vicinity information detection sensor .
A fuel tank inerting system for an aircraft, comprising: a fuel tank ; an air separator comprising an air inlet, a membrane with a permeability differential between oxygen and nitrogen, an oxygen-depleted air outlet, and an oxygen-enriched air outlet; a catalytic reactor arranged to receive oxygen-depleted air from the oxygen-depleted air outlet and fuel, to react the fuel with oxygen in the oxygen-depleted air, and to discharge an inert gas from a reactor outlet; and an inert gas flow path arranged to receive inert gas from the reactor outlet, and characterized in that the inert gas flow path is arranged to direct inert gas to the fuel tank, and the system further characterized by comprising a reactant flow path from the air separation module oxygen-depleted air outlet to a catalytic reactor inlet, and an inert gas bypass flow path from the air separation module oxygen-depleted air outlet to the fuel tank and bypassing the catalytic reactor. a fuel tank ; an air separator comprising an air inlet, a membrane with a permeability differential between oxygen and nitrogen, an oxygen-depleted air outlet, and an oxygen-enriched air outlet; a catalytic reactor arranged to receive oxygen-depleted air from the oxygen-depleted air outlet and fuel, to react the fuel with oxygen in the oxygen-depleted air, and to discharge an inert gas from a reactor outlet; and an inert gas flow path arranged to receive inert gas from the reactor outlet, and characterized in that the inert gas flow path is arranged to direct inert gas to the fuel tank, and the system further characterized by comprising a reactant flow path from the air separation module oxygen-depleted air outlet to a catalytic reactor inlet, and an inert gas bypass flow path from the air separation module oxygen-depleted air outlet to the fuel tank and bypassing the catalytic reactor.
A method of producing smoking articles , each comprising at least one filtering part and at least one active part , in particular containing tobacco, to release a substance to be inhaled; the filtering part comprises at least one filtering portion having a first material and a plurality of loose particles of a second material; the method comprises a covering step, during which the filtering portion is covered with an at least partial wrap in the area of a covering station ; the method being characterized in that it comprises a cleaning step during which at least part of the particles are forced to detach themselves from the first material and are moved away from the first material itself in the area of a cleaning station .
A combustion chamber for a gas turbine engine comprising: - an inner wall delimiting an inner volume (V) of the combustion chamber , through which combustion gas flow from a burner to a gas turbine of the gas turbine engine , - an outer wall and an interspace between the inner wall and the outer wall , - a plurality of dampening cavities for the dampening of thermo-acoustic vibrations in the combustion gas, each dampening cavity communicating with the inner volume (V) through at least a dampening hole on the inner wall , - at least a cooling passage for a cooling medium flowing outside the inner volume (V) in thermal contact with the inner wall , each dampening cavity comprising at least a purging hole communicating with the cooling passage for purging a portion of the cooling medium through the dampening cavities to the inner volume (V), wherein the plurality of dampening cavities and the cooling passage being provided in said interspace , characterized in that the plurality of dampening cavities extends from one to the other of said inner wall and outer wall . - an inner wall delimiting an inner volume (V) of the combustion chamber , through which combustion gas flow from a burner to a gas turbine of the gas turbine engine , - an outer wall and an interspace between the inner wall and the outer wall , - a plurality of dampening cavities for the dampening of thermo-acoustic vibrations in the combustion gas, each dampening cavity communicating with the inner volume (V) through at least a dampening hole on the inner wall , - at least a cooling passage for a cooling medium flowing outside the inner volume (V) in thermal contact with the inner wall , each dampening cavity comprising at least a purging hole communicating with the cooling passage for purging a portion of the cooling medium through the dampening cavities to the inner volume (V), wherein the plurality of dampening cavities and the cooling passage being provided in said interspace ,
Method for manufacturing a stator (STAT) for an axial flux electric machine, comprising the steps of: - perforating (E1) a magnetic metal sheet strip (RU), said perforation step comprising: - cutting (E11) material on a first lateral part (PL1) of the strip, leaving slots (CR) on said strip that are intended to form stator teeth (DE), - cutting (E12) recesses (EV) on a second lateral part (PL2) of the strip (RU), opposite to said first lateral part (PL1) of the strip (RU), that are intended to form coolant circulation channels (CA), - winding (E2) said metal sheet strip (RU) according to a radial stack, characterized in that during the cutting (E11) of material between two slots of said strip (RU), the cutting (E12) of the recesses (EV) is effected by a double perforation symmetrically with respect to a line parallel to the axis of axial symmetry (ASC) comprised between said two slots, the recesses (EV) being cut so as to be positioned on either side of the radial section (SR) of the wound stator (STAT) passing through said line, so as to be spaced apart from one another from a first radial peripheral part of said stator (STAT) until they meet on said radial section (SR) at the second radial peripheral part of said stator (STAT) that is opposite to said first radial peripheral part, thus forming said channels (CA), said channels (CA) being in the form of a V and meeting at the ends of the branches of the V during said winding step (E2). - perforating (E1) a magnetic metal sheet strip (RU), said perforation step comprising: - cutting (E11) material on a first lateral part (PL1) of the strip, leaving slots (CR) on said strip that are intended to form stator teeth (DE), - cutting (E12) recesses (EV) on a second lateral part (PL2) of the strip (RU), opposite to said first lateral part (PL1) of the strip (RU), that are intended to form coolant circulation channels (CA), - winding (E2) said metal sheet strip (RU) according to a radial stack, - cutting (E11) material on a first lateral part (PL1) of the strip, leaving slots (CR) on said strip that are intended to form stator teeth (DE), - cutting (E12) recesses (EV) on a second lateral part (PL2) of the strip (RU), opposite to said first lateral part (PL1) of the strip (RU), that are intended to form coolant circulation channels (CA), - winding (E2) said metal sheet strip (RU) according to a radial stack,
A calcium salt of N -(3-carboxyl-1-oxopropyl)-(4 S )-( p -phenylphenylmethyl)-4-amino-(2 R )-methyl butanoic acid ethyl ester having the formula (I) and being in crystalline form and comprising Modification B or hydrate form H B , wherein Modification B is characterized in that said form has at least one of the following characteristics: i) an X-ray powder diffraction pattern comprising four or more 2θ values (±0.1°) (CuKa; 45 kV, 40 mA; λ = 1.540598 Å) selected from the group consisting of 4.6, 6.0, 12.6, 15.5, 16.6, 19.6 and 22.5 degrees at a temperature of 20 to 25 °C; ii) a melting point with an onset at 173 ± 2.4 °C; iii) a differential thermal analysis (DTA) thermogram with an endotherm starting at 173 ± 2.5 °C; and Modification H B is characterized in that said form has at least one of the following characteristics: i) an X-ray powder diffraction pattern comprising four or more 2θ values (±0.1°) (CuKα; 45 kV, 40 mA; λ = 1.540598 Å) selected from the group consisting of 3.6, 6.4, 8.4, 14.6, 15.3, 16.8, 17.8, 19.7 and 20.6 degrees at a temperature of 20 to 25 °C; ii) a melting point with an onset at 180 ± 2.4 °C; and iii) a differential thermal analysis (DTA) thermogram with an endotherm starting at 180 ± 2.5 °C. i) an X-ray powder diffraction pattern comprising four or more 2θ values (±0.1°) (CuKa; 45 kV, 40 mA; λ = 1.540598 Å) selected from the group consisting of 4.6, 6.0, 12.6, 15.5, 16.6, 19.6 and 22.5 degrees at a temperature of 20 to 25 °C; ii) a melting point with an onset at 173 ± 2.4 °C; iii) a differential thermal analysis (DTA) thermogram with an endotherm starting at 173 ± 2.5 °C; and i) an X-ray powder diffraction pattern comprising four or more 2θ values (±0.1°) (CuKα; 45 kV, 40 mA; λ = 1.540598 Å) selected from the group consisting of 3.6, 6.4, 8.4, 14.6, 15.3, 16.8, 17.8, 19.7 and 20.6 degrees at a temperature of 20 to 25 °C; ii) a melting point with an onset at 180 ± 2.4 °C; and iii) a differential thermal analysis (DTA) thermogram with an endotherm starting at 180 ± 2.5 °C.
A vaporizer formed by sequentially connecting the body of a dispersion unit , a connection unit , and a vaporization unit , wherein: said dispersion unit body has a carrier gas introduction bore formed in the center axis direction of the dispersion unit body, a center rod is inserted in said carrier gas introduction bore so that the interspace between the inner wall of said carrier gas introduction bore and the outer wall of said center rod forms a gas passage , thin film-forming material supply units formed at multiple points situated midway of said gas passage of said dispersion unit body and supplying thin film-forming materials are provided, a cooling unit provided on the outer periphery of said carrier gas introduction bore of said dispersion unit body and cooling said gas passage is provided, and said center rod has a sealing member provided in the longitudinal direction of the center rod, characterized in that the sealing member is closely attached between a groove formed on said center rod and a groove formed on the inner wall of said dispersion unit body. said dispersion unit body has a carrier gas introduction bore formed in the center axis direction of the dispersion unit body, a center rod is inserted in said carrier gas introduction bore so that the interspace between the inner wall of said carrier gas introduction bore and the outer wall of said center rod forms a gas passage , thin film-forming material supply units formed at multiple points situated midway of said gas passage of said dispersion unit body and supplying thin film-forming materials are provided, a cooling unit provided on the outer periphery of said carrier gas introduction bore of said dispersion unit body and cooling said gas passage is provided, and said center rod has a sealing member provided in the longitudinal direction of the center rod, characterized in that the sealing member is closely attached between a groove formed on said center rod and a groove formed on the inner wall of said dispersion unit body.
An apparatus comprising a subsea electrical connector for providing a subsea electrical connection, the connector comprising: an internal portion , the internal portion comprising a first fluid, a seal , the seal sealing the internal portion from an exterior of the connector , wherein the seal is configured to open at a pressure differential threshold across the seal , the pressure differential threshold being lower than that corresponding to an atmospheric internal pressure in the internal portion and an external pressure at the exterior of the connector at a location of deployed use of the connector ; wherein the apparatus comprises a fluid chamber for housing the connector, the fluid chamber comprising the first fluid. an internal portion , the internal portion comprising a first fluid, a seal , the seal sealing the internal portion from an exterior of the connector , wherein the seal is configured to open at a pressure differential threshold across the seal , the pressure differential threshold being lower than that corresponding to an atmospheric internal pressure in the internal portion and an external pressure at the exterior of the connector at a location of deployed use of the connector ; wherein the apparatus comprises a fluid chamber for housing the connector, the fluid chamber comprising the first fluid.
Heat exchanger for machines for preparing infused beverages, comprising a box-shaped body , a duct for the passage of a liquid to be heated, said duct being made of steel and extending inside the box-shaped body , a heating element placed in contact with said duct for the passage of the liquid; said duct extending according to a curvilinear path inside said box-shaped body and having an inlet and an outlet of the liquid to be heated, characterized by comprising at least one support for constraining said box-shaped body inside the machine for preparing infused beverages; said at least one support being made of insulating material; said support making, together with said box-shaped body, a seat for accommodating heat sensors ; - said box-shaped body having two half-seats of said accommodating seats ; said half-seats being made on the side of the box-shaped body facing said support when the heat exchanger is mounted, said half seats comprising grooves made on a side of the box-shaped body . - said box-shaped body having two half-seats of said accommodating seats ; said half-seats being made on the side of the box-shaped body facing said support when the heat exchanger is mounted, said half seats comprising grooves made on a side of the box-shaped body .
A screw discharger for a filtering centrifuge, comprising a main body, a top cover, a conical bushing , and a sealing gasket , the main body comprising a plurality of floating vanes ; wherein the main body further comprises a conical sleeve , a plurality of primary vanes , a plurality of secondary vanes ; the primary vanes and the secondary vanes are disposed on the conical sleeve; a baffle is disposed on the main body of the screw discharger and is disposed between the primary vanes and the secondary vanes, so that in use no materials enter the space between the primary vanes and the secondary vanes; the plurality of floating vanes is disposed at an outer side of the secondary vanes ; the conical bushing is attached to an inner surface of the conical sleeve of the main body; the sealing gasket is disposed between tops of the conical bushing and the conical sleeve and the top cover; and the conical bushing , the conical sleeve , and the top cover are fixed via bolts . wherein the main body further comprises a conical sleeve , a plurality of primary vanes , a plurality of secondary vanes ; the primary vanes and the secondary vanes are disposed on the conical sleeve; a baffle is disposed on the main body of the screw discharger and is disposed between the primary vanes and the secondary vanes, so that in use no materials enter the space between the primary vanes and the secondary vanes; the plurality of floating vanes is disposed at an outer side of the secondary vanes ; the conical bushing is attached to an inner surface of the conical sleeve of the main body; the sealing gasket is disposed between tops of the conical bushing and the conical sleeve and the top cover; and the conical bushing , the conical sleeve , and the top cover are fixed via bolts .