mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the removal of hydrogen sulfide (H 2 S) from natural gas, said method comprising the steps of: - feeding the gas to a membrane separation unit, optionally after membrane pre-treatment, drying and/or extraction of higher hydrocarbons, - collecting the product gas from the membrane unit, - heating the permeate stream to the necessary inlet temperature for catalytic oxidation of H 2 S, and - feeding the heated permeate stream to a catalytic oxidation unit, where H 2 S is oxidized to SO 2 according to the equation H 2 S + 1.5 O 2 → SO 2 + H 2 O wherein - the membrane separation unit and the catalytic oxidation unit are placed on an off-shore facility, - the heating of the permeate stream is accomplished either by using a fraction of the feed gas to heat the permeate stream in a separate heater or by using a steam-fired heater, - the catalyst to be used in the catalytic oxidation unit is a monolithic metal oxide catalyst consisting of one or more metal oxides, and - the metal of the metal oxide in the catalyst is selected from the group comprising V, Cr, W, Ce, Mo, Nb, Fe, Si, Ti, Al, Ca and Mg, and one or more supports taken from the group comprising Al 2 O 3 , SiO 2 , SiC and TiO 2 . - feeding the gas to a membrane separation unit, optionally after membrane pre-treatment, drying and/or extraction of higher hydrocarbons, - collecting the product gas from the membrane unit, - heating the permeate stream to the necessary inlet temperature for catalytic oxidation of H 2 S, and - feeding the heated permeate stream to a catalytic oxidation unit, where H 2 S is oxidized to SO 2 according to the equation H 2 S + 1.5 O 2 → SO 2 + H 2 O wherein - the membrane separation unit and the catalytic oxidation unit are placed on an off-shore facility, - the heating of the permeate stream is accomplished either by using a fraction of the feed gas to heat the permeate stream in a separate heater or by using a steam-fired heater, - the catalyst to be used in the catalytic oxidation unit is a monolithic metal oxide catalyst consisting of one or more metal oxides, and - the metal of the metal oxide in the catalyst is selected from the group comprising V, Cr, W, Ce, Mo, Nb, Fe, Si, Ti, Al, Ca and Mg, and one or more supports taken from the group comprising Al 2 O 3 , SiO 2 , SiC and TiO 2 . - the membrane separation unit and the catalytic oxidation unit are placed on an off-shore facility, - the heating of the permeate stream is accomplished either by using a fraction of the feed gas to heat the permeate stream in a separate heater or by using a steam-fired heater, - the catalyst to be used in the catalytic oxidation unit is a monolithic metal oxide catalyst consisting of one or more metal oxides, and - the metal of the metal oxide in the catalyst is selected from the group comprising V, Cr, W, Ce, Mo, Nb, Fe, Si, Ti, Al, Ca and Mg, and one or more supports taken from the group comprising Al 2 O 3 , SiO 2 , SiC and TiO 2 .
An ejector for generating a vacuum comprising: a drive nozzle for generating a drive jet of drive fluid from a pressurized fluid source and directing said drive jet of drive fluid into an outlet flow passage at the outlet of a drive stage of the ejector in order to entrain air or other medium in a volume surrounding said jet of drive fluid into the jet flow to generate a vacuum across said drive stage, wherein said drive nozzle substantially consists of an inlet flow section and an outlet flow section aligned in a direction of fluid flow through the nozzle, the outlet flow section diverging in the direction of fluid flow, from an outlet end of the inlet flow section substantially to an exit of the nozzle, the outlet flow section having a shape which is more divergent near the outlet of the inlet flow section and less divergent near the exit of the nozzle, wherein, excepting that the inlet to the inlet flow section may be provided with a chamfered, rounded or radiused edge, the inlet flow section is of constant cross-sectional area as viewed in the direction of fluid flow through the drive nozzle, and wherein the cross-sectional shape of the outlet flow section , when viewed perpendicular to the direction of fluid flow though the nozzle, includes a smooth curve progressing from a most divergent angle at the outlet end of the inlet section to a least divergent angle substantially at the exit of the drive nozzle. a drive nozzle for generating a drive jet of drive fluid from a pressurized fluid source and directing said drive jet of drive fluid into an outlet flow passage at the outlet of a drive stage of the ejector in order to entrain air or other medium in a volume surrounding said jet of drive fluid into the jet flow to generate a vacuum across said drive stage, wherein said drive nozzle substantially consists of an inlet flow section and an outlet flow section aligned in a direction of fluid flow through the nozzle, the outlet flow section diverging in the direction of fluid flow, from an outlet end of the inlet flow section substantially to an exit of the nozzle, the outlet flow section having a shape which is more divergent near the outlet of the inlet flow section and less divergent near the exit of the nozzle, wherein, excepting that the inlet to the inlet flow section may be provided with a chamfered, rounded or radiused edge, the inlet flow section is of constant cross-sectional area as viewed in the direction of fluid flow through the drive nozzle, and wherein the cross-sectional shape of the outlet flow section , when viewed perpendicular to the direction of fluid flow though the nozzle, includes a smooth curve progressing from a most divergent angle at the outlet end of the inlet section to a least divergent angle substantially at the exit of the drive nozzle.
A method for forming a barrel structure, the method comprising: installing a vacuum bag over a dry three-dimensional preform inner barrel structure on a steel mold tool; placing the dry three-dimensional preform inner barrel structure inside an oven; infusing the dry three-dimensional preform inner barrel structure with resin to a form resin-infused inner barrel structure; curing the resin-infused inner barrel structure to form an inner barrel; removing the inner barrel from the oven; removing the vacuum bag; removing the release ply from the inner barrel and discarding the release ply and flow media; removing the inner barrel from the steel mold tool; drilling a number of holes in at least one of an inner skin and an outer skin of the inner barrel, placing the inner barrel with the number of holes in the oven; melting out a number of wax mandrels from the inner barrel through the number of holes drilled; removing the inner barrel from the oven; and removing residual wax film from the inner barrel. installing a vacuum bag over a dry three-dimensional preform inner barrel structure on a steel mold tool; placing the dry three-dimensional preform inner barrel structure inside an oven; infusing the dry three-dimensional preform inner barrel structure with resin to a form resin-infused inner barrel structure; curing the resin-infused inner barrel structure to form an inner barrel; removing the inner barrel from the oven; removing the vacuum bag; removing the release ply from the inner barrel and discarding the release ply and flow media; removing the inner barrel from the steel mold tool; drilling a number of holes in at least one of an inner skin and an outer skin of the inner barrel, placing the inner barrel with the number of holes in the oven; melting out a number of wax mandrels from the inner barrel through the number of holes drilled; removing the inner barrel from the oven; and removing residual wax film from the inner barrel.
Adjustment system for a motor vehicle headlamp, comprising a housing and an adjustment device for adjusting, for example for pivoting, at least one optically relevant component of the motor vehicle headlamp within the housing of the headlamp, which optically relevant component is, for example, a light unit or a light module or comprises at least one light unit or light module, and wherein the adjustment device comprises an adjusting element , a bearing component and a sliding element . wherein the bearing component is realized as a component separate from the housing and is fixedly mounted to the housing , wherein the adjusting element is mounted rotatable about its longitudinal axis (c) in a support region of the bearing component and wherein the adjusting element has an actuation portion , which is connected by gear to a actuation device , and a shank portion including a thread and cooperating with a counter-thread of the sliding element , wherein the sliding element is articulable to the optical unit at a connecting region , wherein the bearing component , which is separate from the housing , comprises a guide region in which the sliding element is located displaceable parallel to the longitudinal axis (c) of the actuating element, characterised in that the actuation device is mounted in the housing , for example rotatable in an opening in the housing, and the support region comprises a latching device to which the actuation device is, in its operating position, latched in relation to the actuating element . wherein the bearing component is realized as a component separate from the housing and is fixedly mounted to the housing , wherein the adjusting element is mounted rotatable about its longitudinal axis (c) in a support region of the bearing component and wherein the adjusting element has an actuation portion , which is connected by gear to a actuation device , and a shank portion including a thread and cooperating with a counter-thread of the sliding element , wherein the sliding element is articulable to the optical unit at a connecting region , wherein the bearing component , which is separate from the housing , comprises a guide region in which the sliding element is located displaceable parallel to the longitudinal axis (c) of the actuating element, characterised in that the actuation device is mounted in the housing , for example rotatable in an opening in the housing, and the support region comprises a latching device to which the actuation device is, in its operating position, latched in relation to the actuating element .
A stethoscope comprising: a. a body ; b. a diaphragm (32; 48); c. an integral annular axially compliant suspension ; characterised in that the stethoscope further comprises: d. a reticulated foam pressure pad ; wherein the annular axially compliant suspension surrounds the reticulated foam pressure pad and is located below the diaphragm (32; 48) and inside an inner perimeter of the body . a. a body ; b. a diaphragm (32; 48); c. an integral annular axially compliant suspension ; d. a reticulated foam pressure pad ; wherein the annular axially compliant suspension surrounds the reticulated foam pressure pad and is located below the diaphragm (32; 48) and inside an inner perimeter of the body .
Shut-off valve , in particular for use in the sanitary sector, comprising a one-piece housing composed of a plastics material which defines an inner region and channels which each serve to conduct fluid and each lead into the inner region of the housing , wherein a blocking body composed of a plastics material is provided, said blocking body being received in the inner region of the housing and being rotatable relative to the housing between an opening position and a closing position, wherein a passage opening in the blocking body overlaps the channels of the housing in the opening position and thus establishes a connection between the channels , and wherein sealing elements composed of a plastics material are provided, said sealing elements each being equipped with a respective passage and each being placed with the respective passage aligned with a respective one of the channels , wherein the blocking body is directly rotatably mounted in the housing , and in that the individual sealing element in each case provides sealing for the mouth of the associated channel into the inner region in relation to a gap which is formed between the housing and the blocking body , characterized in that the sealing elements each have a respective disc-like sealing body which is passed through by the respective passage , in that in each case two protruding webs are additionally formed on the respective sealing body of the individual sealing element and protrude in the direction of the respectively other sealing element (49; 48), in that , of these webs , the one web is provided with a protruding pin , whilst the other web has a recess corresponding to the pin , and in that mutually opposite webs of the sealing elements establish, in each case in pairs, a connection between the sealing elements by virtue of the pin of the protruding web of the one sealing element engaging with the cutout in the web of the other sealing element and vice versa.
A Battery Manager System , BMS, connected to an Electronic Control Unit , ECU, by Controller Area Network, CAN, communication and half-duplex communication through a single line , the BMS comprising: an Input Capture Unit , ICU, for, when the CAN communication has a defect, measuring a frequency and a duty cycle of a modulating pulse signal through the single line, and generating relay control information; a relay control module for generating a relay control signal for controlling a switching operation of a corresponding relay from among a plurality of relays (400_1 to 400_n) based on the relay control information, and generating relay control result information for instructing a control result of the corresponding relay; and a Digital Input Output , DIO, module for changing a voltage at the single line so as to transmit relay control result information to the ECU for a period based on the relay control result information, wherein the plurality of relays are electrically connected between a battery device including the BMS and an electrical load (500_1 to 500_n). an Input Capture Unit , ICU, for, when the CAN communication has a defect, measuring a frequency and a duty cycle of a modulating pulse signal through the single line, and generating relay control information; a relay control module for generating a relay control signal for controlling a switching operation of a corresponding relay from among a plurality of relays (400_1 to 400_n) based on the relay control information, and generating relay control result information for instructing a control result of the corresponding relay; and a Digital Input Output , DIO, module for changing a voltage at the single line so as to transmit relay control result information to the ECU for a period based on the relay control result information, wherein the plurality of relays are electrically connected between a battery device including the BMS and an electrical load (500_1 to 500_n).
A device for distributing, on a surface of a living body, a product containing an active component or forming a cosmetic product, the device comprising a housing and a cartridge , releasably coupled to the housing, wherein: - the cartridge comprises an applicator element and a reservoir containing said product and having a movable or deformable wall part for reducing the volume of the reservoir, wherein at least one opening is provided between the reservoir and the applicator element for applying the product to the applicator element by reducing the volume of the reservoir; and - the housing comprises at least one light source for radiating light through and/or alongside the cartridge and a drive for driving the movable and/or deformable wall part of the reservoir for reducing the volume of the reservoir - wherein the device comprises at least one light guide for guiding the light from the at least one light source to an end of the light guide for transmitting the light to a surface of the skin; and, - wherein the applicator element is made of a material which is substantially hard, substantially rigid, substantially impermeable for the product and substantially non-absorbent for the product. - the cartridge comprises an applicator element and a reservoir containing said product and having a movable or deformable wall part for reducing the volume of the reservoir, wherein at least one opening is provided between the reservoir and the applicator element for applying the product to the applicator element by reducing the volume of the reservoir; and - the housing comprises at least one light source for radiating light through and/or alongside the cartridge and a drive for driving the movable and/or deformable wall part of the reservoir for reducing the volume of the reservoir - wherein the device comprises at least one light guide for guiding the light from the at least one light source to an end of the light guide for transmitting the light to a surface of the skin; and, - wherein the applicator element is made of a material which is substantially hard, substantially rigid, substantially impermeable for the product and substantially non-absorbent for the product.
A method for evolved packet system, EPS, fallback when establishing a voice call while camped on a Fifth Generation New Radio, 5G NR, network, comprising: a user equipment device, UE, , camping on a first cell of the 5G NR network, including performing one or more of an Internet protocol, IP, multimedia subsystem, IMS registration procedure or an IMS session initiation protocol, SIP, invite procedure with an IMS serving the 5G NR network; determining , after attempting to initiate a voice call , that the voice call cannot be established; performing one of a tracking area update, TAU, procedure or an attachment procedure with a second cell of a Fourth Generation, 4G network co-located with and/or indicated by the 5G NR network, wherein an IMS context and an Internet packet data network, PDN, of the UE are transferred to the 4G network during one of the TAU procedure or attachment procedure; and omitting , prior to establishing the voice call over the 4G network, one or more of an IMS registration procedure or a SIP invite procedure with the IMS. camping on a first cell of the 5G NR network, including performing one or more of an Internet protocol, IP, multimedia subsystem, IMS registration procedure or an IMS session initiation protocol, SIP, invite procedure with an IMS serving the 5G NR network; determining , after attempting to initiate a voice call , that the voice call cannot be established; performing one of a tracking area update, TAU, procedure or an attachment procedure with a second cell of a Fourth Generation, 4G network co-located with and/or indicated by the 5G NR network, wherein an IMS context and an Internet packet data network, PDN, of the UE are transferred to the 4G network during one of the TAU procedure or attachment procedure; and omitting , prior to establishing the voice call over the 4G network, one or more of an IMS registration procedure or a SIP invite procedure with the IMS.
An aerosol generating device comprising: a device body ; plant material in the device body ; a heating element in the device body , the heating element configured to heat the plant material; characterised in that the aerosol generating device also comprises a flavor carrier in the device body , the flavor carrier including, an outer housing extending in a longitudinal direction, the outer housing including , an outer housing wall defining at least one outer housing perforation , and an inner housing extending in the longitudinal direction, the inner housing coaxial with the outer housing , the outer housing and the inner housing defining a flavor chamber , the flavor chamber configured to contain a flavoring material , the inner housing including, an inner housing wall defining at least one inner housing perforation , a cover at a first end of the flavor carrier, and a gasket at a second end of the flavor carrier, the gasket being impermeable to aerosol. a device body ; plant material in the device body ; a heating element in the device body , the heating element configured to heat the plant material; characterised in that the aerosol generating device also comprises a flavor carrier in the device body , the flavor carrier including, an outer housing extending in a longitudinal direction, the outer housing including , an outer housing wall defining at least one outer housing perforation , and an inner housing extending in the longitudinal direction, the inner housing coaxial with the outer housing , the outer housing and the inner housing defining a flavor chamber , the flavor chamber configured to contain a flavoring material , the inner housing including, an inner housing wall defining at least one inner housing perforation , a cover at a first end of the flavor carrier, and a gasket at a second end of the flavor carrier, the gasket being impermeable to aerosol. an outer housing extending in a longitudinal direction, the outer housing including , an outer housing wall defining at least one outer housing perforation , and an inner housing extending in the longitudinal direction, the inner housing coaxial with the outer housing , the outer housing and the inner housing defining a flavor chamber , the flavor chamber configured to contain a flavoring material , the inner housing including, an inner housing wall defining at least one inner housing perforation , a cover at a first end of the flavor carrier, and a gasket at a second end of the flavor carrier, the gasket being impermeable to aerosol.
A leaching autoclave system comprising a heat exchanger , an autoclave vessel and an external support system, the external support system comprising a fluid storage tank , with the autoclave vessel fluidically connected to the external support system, the heat exchanger fluidically connected with the external support system, the heat exchanger located in a fluid flow path directly between the autoclave vessel and the storage tank, and directly fluidically connected to each, the heat exchanger comprising a body and a thermal exchange conduit located within the body configured to convey at least one of a leaching fluid and a pressurizing/venting fluid between the autoclave vessel and the support system, the body configured to contain a thermal exchange medium for at least partly surrounding the conduit so as to facilitate the transfer of heat energy between fluid in the conduit and the thermal exchange medium outside the conduit, wherein the leaching autoclave system is configured to convey the leaching fluid and the pressurizing/venting fluid separately between the autoclave vessel and the storage tank, the leaching autoclave system further comprising a charging conduit configured to convey the leaching fluid from the storage tank to charge the autoclave vessel.