mhurhangee/patent-ind-claim-en huggingface dataset:
Process for concentrating amine water, said amine water being wastewater deriving from the partial or total replacement of aqueous solutions of chemical compounds containing nitrogen used for the treatment of natural gas and comprising water and nitrogen-containing chemical compounds and having a concentration of total nitrogen ranging between 10000 mg/L and 100000 mg/L, the amine water further comprising sulfur sulfide whose sulfur sulfide concentration ranges from 1000 mg/L to 10000 mg/L, and boron with a concentration which ranges from 10 mg/L to 1000 mg/L, the amine water having a chemical oxygen demand which ranges from 100000 mg/L to 1000000 mg/L; said process comprising dehydrating said amine water through membrane distillation at a temperature ranging from 30 °C to 95° C and at a pressure ranging from 1 bar to 1.5 absolute bar; wherein the amine water is heated and fed to a membrane distillation unit in a first sector at atmospheric pressure, adjacent to a polymeric membrane , said membrane being in turn adjacent to a second sector at atmospheric pressure; both sectors being maintained at atmospheric pressure between 1 and 1.5 absolute bar; and wherein a distillate in vapour phase permeates through the polymeric membrane, leaving a concentrate in the first sector; and wherein in the second atmospheric pressure sector a carrier gas flows which drags the distillate in vapour phase becoming saturated; and wherein the distillate has chemical oxygen demand, concentration of total nitrogen and content of boron and sulfur sulfide at least 99% lower than the amine water feed.
Subscriber station (11; 12) for a bus system , having a communication control device (111; 121) for creating or reading at least one message (3; 31, 32; 33; 31, 33) for/from at least one further subscriber station of the bus system , during which exclusive, collision-free access of a subscriber station (11 to 19) to a bus line of the bus system is at least occasionally guaranteed, wherein the communication control device (111; 121) is configured to determine or estimate channel status information from the reception signal of a received training sequence (32; 332) and to store said information in a storage device (112; 122), wherein the channel status information contained in the received training sequence (32; 332) is also reused from a previous training sequence by accessing the storage device (112; 122) in which the previous received training sequences (32; 332) and/or the channel status information determined therefrom is/are stored, wherein the channel status information comprises information for determining the channel characteristic between the subscriber station (11; 12) and the further subscriber station (12 to 19; 11, 13 to 19) of the bus system , to which the message (3; 31, 32; 33; 31, 33) is to be transmitted, wherein the communication control device is also configured to create a training sequence (32; 332) within a predetermined cycle time (T Z ) such that the training sequence (32; 332) is emitted once for all subscriber stations (11 to 19) of the bus system within this predetermined cycle time (T Z ). a communication control device (111; 121) for creating or reading at least one message (3; 31, 32; 33; 31, 33) for/from at least one further subscriber station of the bus system , during which exclusive, collision-free access of a subscriber station (11 to 19) to a bus line of the bus system is at least occasionally guaranteed, wherein the communication control device (111; 121) is configured to determine or estimate channel status information from the reception signal of a received training sequence (32; 332) and to store said information in a storage device (112; 122), wherein the channel status information contained in the received training sequence (32; 332) is also reused from a previous training sequence by accessing the storage device (112; 122) in which the previous received training sequences (32; 332) and/or the channel status information determined therefrom is/are stored, wherein the channel status information comprises information for determining the channel characteristic between the subscriber station (11; 12) and the further subscriber station (12 to 19; 11, 13 to 19) of the bus system , to which the message (3; 31, 32; 33; 31, 33) is to be transmitted, wherein the communication control device is also configured to create a training sequence (32; 332) within a predetermined cycle time (T Z ) such that the training sequence (32; 332) is emitted once for all subscriber stations (11 to 19) of the bus system within this predetermined cycle time (T Z ).
Cover film for the compressing of bales, characterized in that the cover film comprises at least three layers and is hot-stretched at a temperature of more than 80°C and comprises an inner layer comprising a copolymer of an ethylene- α-olefin, wherein an α-olefin from the group of 1-butene, 1-hexene, 1-heptene, 1-octene is used for copolymerization with the ethylene, wherein the content of this copolymer is more than 5% by weight and less than 50% by weight of the inner layer , wherein outer layers of the film comprise no significant content of this polymer, wherein the content of this copolymer in the outer layers is less than 0.5%.
A method for processing a constant bit rate CBR service bitstream in Ethernet communication, comprising: receiving the CBR service bitstream; obtaining a code block stream based on the service bitstream, wherein an encoding type of the code block stream is M bit/N bit encoding, M is a positive integer, N is an integer not less than M, the code block stream comprises a first-type code block and a second-type code block, the first-type code block comprises M service bits, the second-type code block comprises L service bits, and L is an integer less than M and not less than 0, wherein the first-type code block is a data code block and the second -type code block is an extension of a control block of an Ethernet encoding packet; and sending the code block stream, wherein the second-type code block comprises an indicator bit, and the indicator bit is used to indicate a quantity of service bits in the second-type code block. receiving the CBR service bitstream; obtaining a code block stream based on the service bitstream, wherein an encoding type of the code block stream is M bit/N bit encoding, M is a positive integer, N is an integer not less than M, the code block stream comprises a first-type code block and a second-type code block, the first-type code block comprises M service bits, the second-type code block comprises L service bits, and L is an integer less than M and not less than 0, wherein the first-type code block is a data code block and the second -type code block is an extension of a control block of an Ethernet encoding packet; and sending the code block stream, wherein the second-type code block comprises an indicator bit, and the indicator bit is used to indicate a quantity of service bits in the second-type code block.
A system comprising: a pressure transducer connectable to, or installable in, a pipeline for transporting hydrocarbon fluids; a processing device communicatively couplable to the pressure transducer; and a non-transitory memory device comprising instructions that are executable by the processing device to cause the processing device to perform operations comprising: instructing a valve to actuate to generate a pressure wave in the pipeline; recording a reflex pressure pulse measured by the pressure transducer as a function of time in response to the pressure wave to produce a pressure response; comparing the pressure response to a clean simulation profile of the pipeline to extrapolate a deposit profile for the pipeline; and characterized by determining a launch time for a pipeline inspection gauge by comparing the deposit profile for the pipeline to at least one launch criterion for the pipeline inspection gauge. a pressure transducer connectable to, or installable in, a pipeline for transporting hydrocarbon fluids; a processing device communicatively couplable to the pressure transducer; and a non-transitory memory device comprising instructions that are executable by the processing device to cause the processing device to perform operations comprising: instructing a valve to actuate to generate a pressure wave in the pipeline; recording a reflex pressure pulse measured by the pressure transducer as a function of time in response to the pressure wave to produce a pressure response; comparing the pressure response to a clean simulation profile of the pipeline to extrapolate a deposit profile for the pipeline; and characterized by determining a launch time for a pipeline inspection gauge by comparing the deposit profile for the pipeline to at least one launch criterion for the pipeline inspection gauge. instructing a valve to actuate to generate a pressure wave in the pipeline; recording a reflex pressure pulse measured by the pressure transducer as a function of time in response to the pressure wave to produce a pressure response; comparing the pressure response to a clean simulation profile of the pipeline to extrapolate a deposit profile for the pipeline; and characterized by determining a launch time for a pipeline inspection gauge by comparing the deposit profile for the pipeline to at least one launch criterion for the pipeline inspection gauge.
An augmentation device (100, 100', 100", 100′′′, 100"", 100 , 100""") comprising an annular cone (200, 200', 200", 200′′′, 200"", 200′′′ʺ, 200′′′′′′) surrounding a channel (300, 300', 300", 300′′′, 300"", 300′′′ʺ, 300"""), which extends axially along a longitudinal axis of the augmentation device (100, 100', 100", 100′′′, 100"", 100′′′ʺ, 100′′′′′′) from a proximal cone end (210, 210', 210", 210′′′, 210"", 210′′′ʺ, 210′′′′′′) to a distal cone end (220, 220', 220", 220′′′, 220"", 220′′′ʺ, 220′′′′′′), an outer diameter of the cone (200, 200', 200", 200′′′, 200"", 200""', 200′′′′′′) decreasing from the proximal cone end (210, 210', 210", 210′′′, 210"", 210′′′ʺ, 210′′′′′′) in the direction of the distal cone end (220, 220', 220", 220′′′, 220"", 220""', 220"""), at least two metal plates (400, 400', 400", 400′′′, 400"", 400""', 400′′′′′′) following an outer contour of the cone (200, 200', 200", 200′′′, 200"", 200""', 200′′′′′′) being arranged on a lateral surface (230, 230", 230""') of the cone (200, 200', 200", 200′′′, 200"", 200""', 200′′′′′′), characterized in that the cone (200, 200', 200", 200′′′, 200"", 200′′′ʺ, 200′′′′′′) is reversibly detachable from the metal plates (400, 400', 400", 400′′′, 400"", 400′′′ʺ, 400′′′′′′) by displacing the cone (200, 200', 200", 200′′′, 200"", 200′′′ʺ, 200′′′′′′) in the direction of the proximal cone end (210, 210', 210", 210′′′, 210"", 210""', 210"""). an outer diameter of the cone (200, 200', 200", 200′′′, 200"", 200""', 200′′′′′′) decreasing from the proximal cone end (210, 210', 210", 210′′′, 210"", 210′′′ʺ, 210′′′′′′) in the direction of the distal cone end (220, 220', 220", 220′′′, 220"", 220""', 220"""), at least two metal plates (400, 400', 400", 400′′′, 400"", 400""', 400′′′′′′) following an outer contour of the cone (200, 200', 200", 200′′′, 200"", 200""', 200′′′′′′) being arranged on a lateral surface (230, 230", 230""') of the cone (200, 200', 200", 200′′′, 200"", 200""', 200′′′′′′), characterized in that the cone (200, 200', 200", 200′′′, 200"", 200′′′ʺ, 200′′′′′′) is reversibly detachable from the metal plates (400, 400', 400", 400′′′, 400"", 400′′′ʺ, 400′′′′′′) by displacing the cone (200, 200', 200", 200′′′, 200"", 200′′′ʺ, 200′′′′′′) in the direction of the proximal cone end (210, 210', 210", 210′′′, 210"", 210""', 210""").
A portable X-ray generation device comprising: an electric field emission X-ray source including a cathode electrode having an electron emitter, an anode electrode having an X-ray target surface, and a gate electrode disposed between the cathode electrode and the anode electrode ; and a driving signal generator configured to generate at least three driving signals applied to the cathode electrode , the anode electrode , and the gate electrode , respectively, by using a direct current power having a predetermined voltage, wherein the driving signal generator includes a voltage converter configured to generate a first driving voltage of a first voltage level (V1) for the anode electrode , a second driving voltage of a second voltage level (V2) for the gate electrode , and a third driving voltage of a third voltage level (V3) for the cathode electrode with the direct current power, wherein the first to third voltage levels (V1, V2, and V3) have relations of V1 > V2 > V3, characterized in that the voltage converter includes a first voltage converter configured to generate the second driving voltage by firstly boosting a voltage of the direct current power to the second voltage level (V2) and a second voltage converter configured to generate the first driving voltage by secondly boosting the second voltage level (V2) to the first voltage level (V1). an electric field emission X-ray source including a cathode electrode having an electron emitter, an anode electrode having an X-ray target surface, and a gate electrode disposed between the cathode electrode and the anode electrode ; and a driving signal generator configured to generate at least three driving signals applied to the cathode electrode , the anode electrode , and the gate electrode , respectively, by using a direct current power having a predetermined voltage, wherein the driving signal generator includes a voltage converter configured to generate a first driving voltage of a first voltage level (V1) for the anode electrode , a second driving voltage of a second voltage level (V2) for the gate electrode , and a third driving voltage of a third voltage level (V3) for the cathode electrode with the direct current power, wherein the first to third voltage levels (V1, V2, and V3) have relations of V1 > V2 > V3, characterized in that the voltage converter includes a first voltage converter configured to generate the second driving voltage by firstly boosting a voltage of the direct current power to the second voltage level (V2) and a second voltage converter configured to generate the first driving voltage by secondly boosting the second voltage level (V2) to the first voltage level (V1).
A battery module comprising: a plurality of battery cells stacked in a first direction; a cover body provided to cover the plurality of battery cells in a second direction orthogonal to the first direction; and a duct through which gas discharged from each of the plurality of battery cells flows, wherein the duct has a duct main body portion disposed between each of the plurality of battery cells and the cover body in the second direction and extending in the first direction to form a flow space for the gas, a cylindrical portion to which a hose is able to be fitted, the cylindrical portion extending, in the first direction in a form of a cylinder, from one end portion of the duct main body portion in the first direction so as to have a tip with an opening, characterized in a projection with which an end portion of the hose fitted to the cylindrical portion is able to be brought into abutment, the projection protruding from an outer peripheral surface of the cylindrical portion at a position away from the opening of the cylindrical portion in the first direction, and the cover body has an anchoring portion anchored to the projection in the second direction. a plurality of battery cells stacked in a first direction; a cover body provided to cover the plurality of battery cells in a second direction orthogonal to the first direction; and a duct through which gas discharged from each of the plurality of battery cells flows, wherein the duct has a duct main body portion disposed between each of the plurality of battery cells and the cover body in the second direction and extending in the first direction to form a flow space for the gas, a cylindrical portion to which a hose is able to be fitted, the cylindrical portion extending, in the first direction in a form of a cylinder, from one end portion of the duct main body portion in the first direction so as to have a tip with an opening, characterized in a projection with which an end portion of the hose fitted to the cylindrical portion is able to be brought into abutment, the projection protruding from an outer peripheral surface of the cylindrical portion at a position away from the opening of the cylindrical portion in the first direction, and a duct main body portion disposed between each of the plurality of battery cells and the cover body in the second direction and extending in the first direction to form a flow space for the gas, a cylindrical portion to which a hose is able to be fitted, the cylindrical portion extending, in the first direction in a form of a cylinder, from one end portion of the duct main body portion in the first direction so as to have a tip with an opening, characterized in a projection with which an end portion of the hose fitted to the cylindrical portion is able to be brought into abutment, the projection protruding from an outer peripheral surface of the cylindrical portion at a position away from the opening of the cylindrical portion in the first direction, and the cover body has an anchoring portion anchored to the projection in the second direction.
A connector cover for an ultrasonic probe connector comprising: a case ; and a coupling device disposed at one end portion in the case and configured to be coupled to the ultrasonic probe connector , wherein the coupling device comprises a body comprising a fastening portion configured to be coupled to a connector protrusion provided to protrude from the ultrasonic probe connector toward a first direction (X); and a rotating shaft connected to the case and the body , wherein the connector cover is configured to be coupled to the ultrasonic probe connector along a second direction (Y). a case ; and a coupling device disposed at one end portion in the case and configured to be coupled to the ultrasonic probe connector , wherein the coupling device comprises a body comprising a fastening portion configured to be coupled to a connector protrusion provided to protrude from the ultrasonic probe connector toward a first direction (X); and a rotating shaft connected to the case and the body , wherein the connector cover is configured to be coupled to the ultrasonic probe connector along a second direction (Y).
A folded optics system for a camera with an image sensor, the folded optics system comprising: a lens group including one or more lens elements; a first prism to redirect light to the lens group ; a second prism to receive the light from the lens group and redirect the light to the image sensor; an inner carrier structure to couple with the lens group ; an outer carrier structure to couple with the inner carrier structure; a suspension structure for moveably holding the inner carrier structure relative to the outer carrier structure and an actuator module to: move the inner carrier structure and the outer carrier structure together, relative to the image sensor, in at least a first direction; move the inner carrier structure relative to the outer carrier structure in at least a second direction that is orthogonal to the first direction ; and move the inner carrier structure and the outer carrier structure together, relative to the image sensor, in at least a third direction that is orthogonal to the first direction and the second direction. a lens group including one or more lens elements; a first prism to redirect light to the lens group ; a second prism to receive the light from the lens group and redirect the light to the image sensor; an inner carrier structure to couple with the lens group ; an outer carrier structure to couple with the inner carrier structure; a suspension structure for moveably holding the inner carrier structure relative to the outer carrier structure and an actuator module to: move the inner carrier structure and the outer carrier structure together, relative to the image sensor, in at least a first direction; move the inner carrier structure relative to the outer carrier structure in at least a second direction that is orthogonal to the first direction ; and move the inner carrier structure and the outer carrier structure together, relative to the image sensor, in at least a third direction that is orthogonal to the first direction and the second direction. move the inner carrier structure and the outer carrier structure together, relative to the image sensor, in at least a first direction; move the inner carrier structure relative to the outer carrier structure in at least a second direction that is orthogonal to the first direction ; and move the inner carrier structure and the outer carrier structure together, relative to the image sensor, in at least a third direction that is orthogonal to the first direction and the second direction.
A computer-implemented image reprojection method comprising at a logic subsystem: dividing a depth buffer of depth values corresponding to an image produced based on a predicted pose into a plurality of tiles; for each tile of the plurality of tiles, calculating a planar deviation error value that estimates a geometric complexity of the tile and penalizes the tile in proportion to an extent to which a geometry of the tile deviates from a plane; producing a tessellated mesh of the plurality of tiles based on the planar deviation error values calculated for the plurality of tiles; receiving an updated pose; rendering the tessellated mesh based on the updated pose to produce a reprojected image identifying one or more areas in the reprojected image that were previously occluded based on the predicted pose and then uncovered based on the updated pose, where the one or more areas are identified based on primitives in the one or more areas being distorted by more than a threshold; and infilling the one or more areas in the reprojected image to produce an infilled reprojected image. dividing a depth buffer of depth values corresponding to an image produced based on a predicted pose into a plurality of tiles; for each tile of the plurality of tiles, calculating a planar deviation error value that estimates a geometric complexity of the tile and penalizes the tile in proportion to an extent to which a geometry of the tile deviates from a plane; producing a tessellated mesh of the plurality of tiles based on the planar deviation error values calculated for the plurality of tiles; receiving an updated pose; rendering the tessellated mesh based on the updated pose to produce a reprojected image identifying one or more areas in the reprojected image that were previously occluded based on the predicted pose and then uncovered based on the updated pose, where the one or more areas are identified based on primitives in the one or more areas being distorted by more than a threshold; and infilling the one or more areas in the reprojected image to produce an infilled reprojected image.
Hose clamp comprising a clamping band with overlapping end portions in the closed state of the hose clamp, of which the overlapped, inner end portion is a tongue with a width being reduced as compared to the full width of the clamping band and hooks for closing the hose clamp, the overlapping outer end portion having openings for hooking the hooks , an ear-like tensioning device for tensioning the hose clamp around an object to be clamped and a band bow for receiving the tongue , the band bow being cut free from the clamping band by longitudinal cuts to form lateral band webs , characterised in that the number of openings is greater than the number of the hooks , that the clamping band is step-free with the exception of the ear-like tensioning device , and that the length of the tongue is shorter than the difference between the circumferential length of the hose clamp in the untightened and the tightened state.