mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum sealing drainage device for a bleeding wound tissue, the device comprising: a porous foam pad configured to contact with said the bleeding wound tissue, a drainage piping , a sealing film , a connector , a duct , a drainage container , a vacuum source , a gel membrane , at least one outlet pipe , and a plurality of support members , each of said plurality of support members having a sidewall; wherein said gel membrane is disposed above said porous foam pad ; said drainage piping comprise two pipes integrally formed and connected with each other, each pipe of said drainage piping having a cylindrical sidewall and an axis; said drainage piping is disposed above said porous foam pad , and the axis are oriented parallel to a top surface of said porous foam pad ; said plurality of support members is hollow and each of said plurality of support members has a plurality of openings disposed on said sidewall; one end of each of said plurality of support members is disposed in said porous foam pad , and said plurality of support members extends vertically with said plurality of openings into the porous foam pad ; the other end of each of said plurality of support members is connected to said drainage piping ; one end of said outlet pipe is connected to said cylindrical sidewall; said sealing film is disposed on the perimeter of said gel membrane ; the other end of said outlet pipe is connected to said connector , and said connector is connected to said drainage container via said duct ; said drainage piping is disposed between said porous foam pad and said gel membrane ; and said one end of said outlet pipe passes through said gel membrane ; and said drainage container is connected to said vacuum source via said duct . said gel membrane is disposed above said porous foam pad ; said drainage piping comprise two pipes integrally formed and connected with each other, each pipe of said drainage piping having a cylindrical sidewall and an axis; said drainage piping is disposed above said porous foam pad , and the axis are oriented parallel to a top surface of said porous foam pad ; said plurality of support members is hollow and each of said plurality of support members has a plurality of openings disposed on said sidewall; one end of each of said plurality of support members is disposed in said porous foam pad , and said plurality of support members extends vertically with said plurality of openings into the porous foam pad ; the other end of each of said plurality of support members is connected to said drainage piping ; one end of said outlet pipe is connected to said cylindrical sidewall; said sealing film is disposed on the perimeter of said gel membrane ; the other end of said outlet pipe is connected to said connector , and said connector is connected to said drainage container via said duct ; said drainage piping is disposed between said porous foam pad and said gel membrane ; and said one end of said outlet pipe passes through said gel membrane ; and said drainage container is connected to said vacuum source via said duct .
A drop dispenser , comprising: - a container part with an interior volume adapted to be partially filled with a liquid phase and a gaseous phase filling the remainder of the interior volume at ambient pressure, the container part having a displaceable section , and - a dropper part in physical connection and in fluid communication with the interior volume of the container part , comprising an outflow channel , connecting the interior volume of the container part to the environment; wherein the outflow channel comprises - a first section having a proximal end and a distal end , each end having the same or different inner diameter selected independently from each other in the range of 0.09 to 0.19 mm; and - a second section having a proximal end and a distal end ; the proximal end having an inner diameter in the range of 1 to 3 mm; the distal end having an inner diameter in the range of 0.1 to 3 mm, with the proviso that the inner diameter at the distal end of the second section is larger than the inner diameter at the proximal end of the first section ; and wherein - the first section of the outflow channel is generated by laser drilling. - a container part with an interior volume adapted to be partially filled with a liquid phase and a gaseous phase filling the remainder of the interior volume at ambient pressure, the container part having a displaceable section , and - a dropper part in physical connection and in fluid communication with the interior volume of the container part , comprising an outflow channel , connecting the interior volume of the container part to the environment; wherein the outflow channel comprises - a first section having a proximal end and a distal end , each end having the same or different inner diameter selected independently from each other in the range of 0.09 to 0.19 mm; and - a second section having a proximal end and a distal end ; the proximal end having an inner diameter in the range of 1 to 3 mm; the distal end having an inner diameter in the range of 0.1 to 3 mm, with the proviso that the inner diameter at the distal end of the second section is larger than the inner diameter at the proximal end of the first section ; and wherein - the first section of the outflow channel is generated by laser drilling.
A method of producing a coal briquette suitable for being inserted into a dome part of a melting and gasification furnace and being rapidly heated in a molten iron manufacturing apparatus, wherein the molten iron manufacturing apparatus comprises a melting and gasification furnace into which reduced iron can be inserted, and a reducing furnace connected to the melting and gasification furnace suitable for providing the reduced iron wherein the method comprises providing pulverized coal, producing a coal blend by mixing the pulverized coal with a powder-shaped cellulose ether compound, adding water to the coal blend to mix the same, producing a mixture by mixing the coal blend including water with a hardener and molasses, and producing a coal briquette by molding the coal blend, wherein in the step of producing the coal briquette, the amount of the cellulose ether compound included in the coal briquette is 0.1 wt% to 0.7 wt%, an amount of the hardener is 0.5 wt% to 3.0 wt%, and an amount of the molasses is 3 wt% to 12 wt% wherein the hardener is quicklime, slaked lime, calcium carbonate, limestone, cement, bentonite, clay, silica, silicate, dolomite, phosphoric acid or sulfuric acid.
A shaving system , comprising: a unitary frame having a length and width, a topside and an underside, wherein the unitary frame includes angled bends forming at least three lengthwise guards on the unitary frame , the guards separated by at least three gaps in the unitary frame ; and at least three blades , affixed lengthwise to the underside of the guards of the unitary frame , wherein the at least three blades include edges , and wherein the blade edges extend into the gaps in the unitary frame when affixed to the underside of the guards of the unitary frame . a unitary frame having a length and width, a topside and an underside, wherein the unitary frame includes angled bends forming at least three lengthwise guards on the unitary frame , the guards separated by at least three gaps in the unitary frame ; and at least three blades , affixed lengthwise to the underside of the guards of the unitary frame , wherein the at least three blades include edges , and wherein the blade edges extend into the gaps in the unitary frame when affixed to the underside of the guards of the unitary frame .
Switchover valve for controlling a hydraulic liquid flow, having a pick-off element which is arranged in a valve housing and which is selectively movable into a first switching position (S1) or a second switching position (S2) and which is selectively arrestable in the first or the second switching position (S1, S2) by means of a spring-loaded detent element , wherein, in the first switching position (S1), a first hydraulic port is connected to a relief port and, in the second switching position (S2), a second hydraulic port is connected to the relief port , wherein a switching travel of the pick-off element is provided in limited form, characterized in that the detent element is arranged at least partially in a recess of the pick-off element , wherein the valve housing has, in an axial direction (L), an axially delimited first groove in which the detent element is arranged in axially displaceable fashion.
An engine having an engine shaft configured to rotate and cause one or more pistons to reciprocate within a cylinder chamber along an axis, each piston having a first piston part and piston stem to move in unison with or separately from a second piston part to define piston strokes for different thermal functions of the engine, the engine comprising: a piston lever having a first end coupled to a movable fulcrum point and a second end coupled at a copy point to the piston stem; an actuation mechanism configured to move the piston lever and thereby the copy point; and a guide apparatus configured to dictate movement of the copy point in a direction substantially parallel to the cylinder axis, wherein a movable fulcrum comprises a roller or a slider moveable within a guide apparatus such that the movable fulcrum point is configured to move in a direction substantially perpendicular with the cylinder chamber axis. a piston lever having a first end coupled to a movable fulcrum point and a second end coupled at a copy point to the piston stem; an actuation mechanism configured to move the piston lever and thereby the copy point; and a guide apparatus configured to dictate movement of the copy point in a direction substantially parallel to the cylinder axis, wherein a movable fulcrum comprises a roller or a slider moveable within a guide apparatus such that the movable fulcrum point is configured to move in a direction substantially perpendicular with the cylinder chamber axis.
Sealing body for sealing a gap between a telecommunication cable and a surface of a port entry device , the sealing body comprising a) a passageway for receiving a section of the cable, comprising a first axial portion and an adjacent, coaxial second axial portion , wherein the length direction of the passageway defines axial directions , with radial directions being directions orthogonal to the axial directions, b) a base forming the first axial portion of the passageway, and c) a segmented tubular wall , elastically deformable and radially compressible, forming the second axial portion of the passageway, wherein the segmented tubular wall is formed by circumferentially arranged segments protruding from the base in an axial direction , and wherein the segments are separated by a plurality of gaps , extending between an inner surface of the segmented wall and an outer surface of the segmented wall, characterized in that the width of the gaps , measured circumferentially, increases with increasing axial distance from the base or the gaps are skew V-shaped gaps. a) a passageway for receiving a section of the cable, comprising a first axial portion and an adjacent, coaxial second axial portion , wherein the length direction of the passageway defines axial directions , with radial directions being directions orthogonal to the axial directions, b) a base forming the first axial portion of the passageway, and c) a segmented tubular wall , elastically deformable and radially compressible, forming the second axial portion of the passageway, wherein the segmented tubular wall is formed by circumferentially arranged segments protruding from the base in an axial direction , and wherein the segments are separated by a plurality of gaps , extending between an inner surface of the segmented wall and an outer surface of the segmented wall, characterized in that the width of the gaps , measured circumferentially, increases with increasing axial distance from the base or the gaps are skew V-shaped gaps.
A radiotherapy apparatus for an animal, comprising: a treatment part including an accommodation space for placing an animal; an irradiation part including an electron generator and a linear accelerator coupled to one side of the electron generator and disposed in a direction perpendicular to the treatment part, the linear accelerator being configured to emit radiation toward the treatment part; and an image acquisition part located at a preset interval from the treatment part along an irradiation direction of the radiation and configured to obtain an image of an irradiation area when the radiation is applied, a beam stopper located to be spaced apart from the image acquisition part along the irradiation direction of the radiation to interrupt leakage of the radiation through at least one of the treatment part or the image acquisition part, wherein the irradiation part , the treatment part , the image acquisition part , and the beam stopper are located in said order, characterised in that the radiation has an output of 1 MeV to 2 MeV so as to be applied to a diseased part located within a predetermined distance range from epidermis of the animal, and the irradiation part further includes a first collimator and a second collimator configured to adjust the irradiation area of the radiation, wherein the first collimator is a multi-leaf collimator and wherein the second collimator is a pin-hole collimator. a treatment part including an accommodation space for placing an animal; an irradiation part including an electron generator and a linear accelerator coupled to one side of the electron generator and disposed in a direction perpendicular to the treatment part, the linear accelerator being configured to emit radiation toward the treatment part; and an image acquisition part located at a preset interval from the treatment part along an irradiation direction of the radiation and configured to obtain an image of an irradiation area when the radiation is applied, a beam stopper located to be spaced apart from the image acquisition part along the irradiation direction of the radiation to interrupt leakage of the radiation through at least one of the treatment part or the image acquisition part, wherein the irradiation part , the treatment part , the image acquisition part , and the beam stopper are located in said order, characterised in that the radiation has an output of 1 MeV to 2 MeV so as to be applied to a diseased part located within a predetermined distance range from epidermis of the animal, and the irradiation part further includes a first collimator and a second collimator configured to adjust the irradiation area of the radiation, wherein the first collimator is a multi-leaf collimator and wherein the second collimator is a pin-hole collimator.
Use of propoxylated methyl isobutyl carbinol or propoxylated di-isobutyl carbinol in cleaning compositions for cleaning hard and/or soft surfaces.
A kit of parts for use in the diagnosis and treatment of biofilm in wounds comprising: a composition comprising a surfactant, a metal chelating agent and a photo-catalyst which preferentially stains biofilms, wherein the photo-catalyst comprises Rose Bengal and wherein the metal chelating agent comprises EDTA; and a light source capable of activating the photo-catalyst to fluoresce so that the biofilm is disclosed and capable of generating light-dependent toxicity that kills bacteria and breaks down the biofilm structure; wherein the light source can operate in two modes, a first mode in which the source produces light wavelengths in the region 300nm to 10nm below the Abs max of the photo-catalyst to enable the biofilm to be diagnosed and a second mode in which the source produces light wavelengths in the region of a band 75nm above and 75nm below the Abs max of the photo-catalyst to enable the biofilm to be treated. a composition comprising a surfactant, a metal chelating agent and a photo-catalyst which preferentially stains biofilms, wherein the photo-catalyst comprises Rose Bengal and wherein the metal chelating agent comprises EDTA; and a light source capable of activating the photo-catalyst to fluoresce so that the biofilm is disclosed and capable of generating light-dependent toxicity that kills bacteria and breaks down the biofilm structure; wherein the light source can operate in two modes, a first mode in which the source produces light wavelengths in the region 300nm to 10nm below the Abs max of the photo-catalyst to enable the biofilm to be diagnosed and a second mode in which the source produces light wavelengths in the region of a band 75nm above and 75nm below the Abs max of the photo-catalyst to enable the biofilm to be treated.
A fluorescent X-ray analysis apparatus, comprising: a collecting portion configured to drop a liquid droplet onto a substrate having an object to be measured on a surface thereof and move the dropped liquid droplet on the surface of the substrate to collect the object to be measured into the liquid droplet ; a drying portion configured to dry the liquid droplet so that the object to be measured is held onto the surface of the substrate ; an analysis portion configured to irradiate the object to be measured with an X-ray and perform quantitative analysis of an element contained in the object to be measured based on a fluorescent X-ray output from the object to be measured, characterized by ; a beam sensor configured to emit a laser to the liquid droplet , the laser being emitted with a traveling direction being parallel to the surface of the substrate and having a band shape such that an amount of the liquid droplet is detectable, wherein the apparatus is configured to separate the liquid droplet from the collecting portion before the liquid droplet is dried and after the object to be measured is collected; and a calculating portion configured to calculate a correction coefficient for correcting the amount of the liquid droplet or a quantitative analysis value of the object to be measured based on a detection result of the beam sensor. a collecting portion configured to drop a liquid droplet onto a substrate having an object to be measured on a surface thereof and move the dropped liquid droplet on the surface of the substrate to collect the object to be measured into the liquid droplet ; a drying portion configured to dry the liquid droplet so that the object to be measured is held onto the surface of the substrate ; an analysis portion configured to irradiate the object to be measured with an X-ray and perform quantitative analysis of an element contained in the object to be measured based on a fluorescent X-ray output from the object to be measured, characterized by ; a beam sensor configured to emit a laser to the liquid droplet , the laser being emitted with a traveling direction being parallel to the surface of the substrate and having a band shape such that an amount of the liquid droplet is detectable, wherein the apparatus is configured to separate the liquid droplet from the collecting portion before the liquid droplet is dried and after the object to be measured is collected; and a calculating portion configured to calculate a correction coefficient for correcting the amount of the liquid droplet or a quantitative analysis value of the object to be measured based on a detection result of the beam sensor.
An electronic apparatus 100 comprising: a transceiver 110; a memory 120 configured to store feature information of each of a plurality of robots 200; and at least one processor 130 configured to: receive sensing data obtained by sensing vicinity by at least one external device from the at least one external device 300, through the transceiver, generate at least one map 10 with respect to a space 810 where the at least one external device is positioned based on the received sensing data, generate a traversability map 20 for traversal of a robot 200 based on feature information of at least one robot among the plurality of robots 200 and the at least one generated map, and control the transceiver to transmit the traversability map to the robot, characterized in that , feature information of each of the plurality of robots comprises information about at least eneef a size, a height, and a traversal type for each of the plurality of robots, and wherein the traversal type is at least one of a flight type or a walking type. a transceiver 110; a memory 120 configured to store feature information of each of a plurality of robots 200; and at least one processor 130 configured to: receive sensing data obtained by sensing vicinity by at least one external device from the at least one external device 300, through the transceiver, generate at least one map 10 with respect to a space 810 where the at least one external device is positioned based on the received sensing data, generate a traversability map 20 for traversal of a robot 200 based on feature information of at least one robot among the plurality of robots 200 and the at least one generated map, and control the transceiver to transmit the traversability map to the robot, characterized in that , feature information of each of the plurality of robots comprises information about at least eneef a size, a height, and a traversal type for each of the plurality of robots, and wherein the traversal type is at least one of a flight type or a walking type. receive sensing data obtained by sensing vicinity by at least one external device from the at least one external device 300, through the transceiver, generate at least one map 10 with respect to a space 810 where the at least one external device is positioned based on the received sensing data, generate a traversability map 20 for traversal of a robot 200 based on feature information of at least one robot among the plurality of robots 200 and the at least one generated map, and control the transceiver to transmit the traversability map to the robot, characterized in that , feature information of each of the plurality of robots comprises information about at least eneef a size, a height, and a traversal type for each of the plurality of robots, and wherein the traversal type is at least one of a flight type or a walking type.