mhurhangee/patent-ind-claim-en huggingface dataset:
A computing device implemented method for designing a restored smile to determine a dental treatment, the method comprising: receiving a frontal image of a patient's face including a smile ; characterised by : identifying an inner lip line in the image to identify the area where the patient's teeth are showing in the smile in the image; and superimposing a restored smile over the smile in the image; wherein the step of identifying an inner lip line comprises extracting the edges of the lip forming the inner lip line. receiving a frontal image of a patient's face including a smile ; characterised by : identifying an inner lip line in the image to identify the area where the patient's teeth are showing in the smile in the image; and superimposing a restored smile over the smile in the image; wherein the step of identifying an inner lip line comprises extracting the edges of the lip forming the inner lip line. identifying an inner lip line in the image to identify the area where the patient's teeth are showing in the smile in the image; and superimposing a restored smile over the smile in the image; wherein the step of identifying an inner lip line comprises extracting the edges of the lip forming the inner lip line.
A system comprising: an elongate tubular member extending from a proximal portion to a distal portion, the tubular member comprising: a body extending from the proximal portion to the distal portion , wherein the body comprises a web; a plurality of lumens extending in the body from the proximal portion to the distal portion and separated from each other by the web, the plurality of lumens comprising a first lumen having a first distal opening and a second lumen having a second distal opening , wherein the second distal opening is configured to permit flow of fluid therethrough; an electronic system component disposed in the first lumen at the distal portion, wherein the electronic system component at least partially seals the first distal opening, wherein the electronic system component comprises a visualization system, a light source, or a laser; a crossover port extending in the web at the distal portion between the first lumen and the second lumen, wherein the first lumen and the second lumen are in fluid communication with each other via the crossover port ; and an inlet port through which the fluid is inserted into the first lumen; and a fluid flow path that extends from the inlet port to the second distal opening of the second lumen via the crossover port . a body extending from the proximal portion to the distal portion , wherein the body comprises a web; a plurality of lumens extending in the body from the proximal portion to the distal portion and separated from each other by the web, the plurality of lumens comprising a first lumen having a first distal opening and a second lumen having a second distal opening , wherein the second distal opening is configured to permit flow of fluid therethrough; an electronic system component disposed in the first lumen at the distal portion, wherein the electronic system component at least partially seals the first distal opening, wherein the electronic system component comprises a visualization system, a light source, or a laser; a crossover port extending in the web at the distal portion between the first lumen and the second lumen, wherein the first lumen and the second lumen are in fluid communication with each other via the crossover port ; and an inlet port through which the fluid is inserted into the first lumen; and a fluid flow path that extends from the inlet port to the second distal opening of the second lumen via the crossover port .
A method for manufacturing an ionic conductor, said method including: mixing, using a solvent, LiBH 4 and a lithium halide represented by formula : LiX wherein X represents one selected from the group consisting of halogen atoms; and removing the solvent at 60 to 280°C, wherein the lithium halide has a water content of 50 ppm or more and less than 70000 ppm, wherein the water content in the lithium halide is measured according to the method in the description. mixing, using a solvent, LiBH 4 and a lithium halide represented by formula : LiX wherein X represents one selected from the group consisting of halogen atoms; and removing the solvent at 60 to 280°C, wherein the lithium halide has a water content of 50 ppm or more and less than 70000 ppm, wherein the water content in the lithium halide is measured according to the method in the description.
A mobile, replaceable and regenerable cartridge for the treatment of water, said cartridge being connectable in a water treatment circuit and including connectors for inlet and outlet pipes for at least one fluid and ports for connecting inlet/outlet channels for data and power transmission, including: - an outer shell having an upper opening which can be hermetically sealed by a cover , as well as at least one access to the connectors and connection ports ; - an inner shell fitted in the outer shell also having an upper opening, including an inner volume of the cartridge making up a water treatment reservoir, in which all the technical operating equipment of the cartridge is arranged, characterized in that said technical equipment is secured to at least one chassis able to be inserted through the opening into the inner volume of the inner shell which serves as a sheath for it, the chassis including at least one vertical plate delimiting compartments in the reservoir, the plate(s) defining adjacent columns in the reservoir, each plate arranging upper and lower sludge circulation passages, said volume and said chassis including mutual guide means for their final positioning inside the inner volume; the mobile cartridge also including: - means for handling the cartridge secured to the outer shell ; - means for making the cartridge mobile of the type including at least one axle with at least one rolling member. - an outer shell having an upper opening which can be hermetically sealed by a cover , as well as at least one access to the connectors and connection ports ; - an inner shell fitted in the outer shell also having an upper opening, including an inner volume of the cartridge making up a water treatment reservoir, in which all the technical operating equipment of the cartridge is arranged, characterized in that said technical equipment is secured to at least one chassis able to be inserted through the opening into the inner volume of the inner shell which serves as a sheath for it, the chassis including at least one vertical plate delimiting compartments in the reservoir, the plate(s) defining adjacent columns in the reservoir, each plate arranging upper and lower sludge circulation passages, said volume and said chassis including mutual guide means for their final positioning inside the inner volume; - means for handling the cartridge secured to the outer shell ; - means for making the cartridge mobile of the type including at least one axle with at least one rolling member.
A prosthetic heart valve for implantation at the mitral annulus of a heart, the prosthetic heart valve comprising: a support framework reversibly transformable between a collapsed configuration and an expanded configuration; and one or more leaflets (LF1, LF2) connected to the framework ; wherein, in the expanded configuration: the support framework defines a fluid pathway through the prosthetic heart valve, the support framework having a portion for engaging the mitral annulus, said portion defining a D-shaped cross section of the fluid pathway; the one or more leaflets (LF1, LF2) allow fluid to pass through the fluid pathway in a first direction but prevent fluid from flowing in the opposite direction; the prosthetic heart valve further comprising a tension adjusting mechanism (C2, G) at the portion with a D-shaped cross section of the support framework. a support framework reversibly transformable between a collapsed configuration and an expanded configuration; and one or more leaflets (LF1, LF2) connected to the framework ; wherein, in the expanded configuration: the support framework defines a fluid pathway through the prosthetic heart valve, the support framework having a portion for engaging the mitral annulus, said portion defining a D-shaped cross section of the fluid pathway; the one or more leaflets (LF1, LF2) allow fluid to pass through the fluid pathway in a first direction but prevent fluid from flowing in the opposite direction; the prosthetic heart valve further comprising a tension adjusting mechanism (C2, G) at the portion with a D-shaped cross section of the support framework. the support framework defines a fluid pathway through the prosthetic heart valve, the support framework having a portion for engaging the mitral annulus, said portion defining a D-shaped cross section of the fluid pathway; the one or more leaflets (LF1, LF2) allow fluid to pass through the fluid pathway in a first direction but prevent fluid from flowing in the opposite direction; the prosthetic heart valve further comprising a tension adjusting mechanism (C2, G) at the portion with a D-shaped cross section of the support framework.
Device for removing fibres, lints and/or particles from a surface, having an adhesive layer on at least one circumferential surface of a cover , whereby the cover is composed of at least two flexible, complementary partial surfaces , characterized in, that one of the two partial surfaces forms a protrusion , the circumferential surface and/or the circumferential surface has an non-adhesive area , whereby the non-adhesive area is located in an edge area of the circumferential surface and the protrusion is arranged in the region of an opening of the cover , wherein the adhesive layer is provided with a protective film and the protective film is similar in shape and extent to the partial surface whose adhesive layer it is to cover, wherein the protective film covers the non-adhesive area in the edge region of the circumferential surface .
A gas diffusion electrode comprising: a conductive porous substrate, and a microporous layer on at least one side of said conductive porous substrate, wherein the microporous layer contains electrically conductive microparticles made of carbon black, carbon nanotube, carbon nanofiber, chopped carbon fiber, graphene, or graphite; wherein the total of regions passing through said microporous layer in the thickness direction has an area ratio of 0.1% or more and 1% or less, determined according to the method disclosed in the description, and wherein said microporous layer has a portion that has penetrated into said conductive porous substrate (hereinafter referred to as penetration portion) determined according to the method disclosed in the description, said penetration portion having a thickness ratio (hereinafter referred to as penetration amount) of 30% or more and 70% or less with respect to 100% of the thickness of said microporous layer. a conductive porous substrate, and a microporous layer on at least one side of said conductive porous substrate, wherein the microporous layer contains electrically conductive microparticles made of carbon black, carbon nanotube, carbon nanofiber, chopped carbon fiber, graphene, or graphite; wherein the total of regions passing through said microporous layer in the thickness direction has an area ratio of 0.1% or more and 1% or less, determined according to the method disclosed in the description, and wherein said microporous layer has a portion that has penetrated into said conductive porous substrate (hereinafter referred to as penetration portion) determined according to the method disclosed in the description, said penetration portion having a thickness ratio (hereinafter referred to as penetration amount) of 30% or more and 70% or less with respect to 100% of the thickness of said microporous layer.
A catalyst comprising a complex of gold with a sulphur-containing ligand; wherein said sulphur-containing ligand is selected from the group consisting of a sulphonate, a thiosulphate, a thiocyanate, thiourea, thionyl chloride, thiopropionic acid and thiomalic acid; and wherein said complex is supported on an activated carbon support. wherein said sulphur-containing ligand is selected from the group consisting of a sulphonate, a thiosulphate, a thiocyanate, thiourea, thionyl chloride, thiopropionic acid and thiomalic acid; and wherein said complex is supported on an activated carbon support.
A high voltage silicon carbide, SiC, device, comprising: a SiC insulated gate bipolar transistor, IGBT, comprising a voltage blocking SiC substrate as a drift region of the IGBT; a planar edge termination structure of a first conductivity type at a first surface of the voltage blocking substrate and surrounding an active region of the IGBT; and a beveled edge termination structure extending through a second surface of the voltage blocking substrate opposite the first surface of the voltage blocking substrate, wherein the voltage blocking substrate is a boule grown substrate; and an epitaxial silicon carbide layer on the second surface of the voltage blocking substrate , wherein the planar edge termination structure includes a plurality of floating guard rings ; wherein the epitaxial silicon carbide layer has the first conductivity type opposite to a second conductivity type of the voltage blocking substrate and forms a collector region of the IGBT; and wherein the voltage blocking substrate includes an upper portion having a substantially vertical edge and a lower portion having a beveled edge extending to a bottom surface of the epitaxial silicon carbide layer , so as to form the beveled edge termination structure, beveled from the bottom surface of the epitaxial silicon carbide layer inwards toward the voltage blocking substrate . a SiC insulated gate bipolar transistor, IGBT, comprising a voltage blocking SiC substrate as a drift region of the IGBT; a planar edge termination structure of a first conductivity type at a first surface of the voltage blocking substrate and surrounding an active region of the IGBT; and a beveled edge termination structure extending through a second surface of the voltage blocking substrate opposite the first surface of the voltage blocking substrate, wherein the voltage blocking substrate is a boule grown substrate; and an epitaxial silicon carbide layer on the second surface of the voltage blocking substrate , wherein the planar edge termination structure includes a plurality of floating guard rings ; wherein the epitaxial silicon carbide layer has the first conductivity type opposite to a second conductivity type of the voltage blocking substrate and forms a collector region of the IGBT; and wherein the voltage blocking substrate includes an upper portion having a substantially vertical edge and a lower portion having a beveled edge extending to a bottom surface of the epitaxial silicon carbide layer , so as to form the beveled edge termination structure, beveled from the bottom surface of the epitaxial silicon carbide layer inwards toward the voltage blocking substrate .
A package accommodating a plurality of items, the package having a length, a width and a height, and the package comprising: a front surface ; a rear surface opposite the front surface ; a first surface adjacent the front and rear surfaces , the first surface having no seam thereacross; a second surface opposite the first surface , the second surface having a closing seam extending along a direction of the package width; an opposing pair of third and fourth surfaces respectively adjacent the first and second surfaces , the third and fourth surfaces having a first side seam and a second side seam , respectively, extending therealong along a direction of the package height; a pair of side gussets each of which is located at the third and fourth surfaces , respectively; and a pair of closing gussets located in the second surface , wherein the surfaces (10-15) cooperatively define an interior compartment of the package, characterized in that the package comprises a laminate comprising a film layer and a paper layer, the film layer facing the interior compartment , and wherein the second surface comprises an area essentially consisting of the film layer where the closing seam is formed. a front surface ; a rear surface opposite the front surface ; a first surface adjacent the front and rear surfaces , the first surface having no seam thereacross; a second surface opposite the first surface , the second surface having a closing seam extending along a direction of the package width; an opposing pair of third and fourth surfaces respectively adjacent the first and second surfaces , the third and fourth surfaces having a first side seam and a second side seam , respectively, extending therealong along a direction of the package height; a pair of side gussets each of which is located at the third and fourth surfaces , respectively; and a pair of closing gussets located in the second surface , wherein the surfaces (10-15) cooperatively define an interior compartment of the package,
An on-load tap changer comprising an oil tank filled with an insulation oil, and a vacuum-valve scheme change-over switch placed in the oil tank, the change-over switch comprising a main contact contained in a vacuum valve , and a current-carrying conductor reducing a current flowing in the main contact, the on-load tap changer characterized by further comprising: a current-carrying cam rotatable around a center axis of the change-over switch; a parallel link mechanism receiving rotation force from the current-carrying cam, and moving the current-carrying conductor in and out in a radial direction of the change-over switch ; and a stationary-side current-carrying contact attached to an internal wall surface of the oil tank, and capable of contacting with and separating from the current-carrying contact, wherein the change-over switch is freely attachable to and detachable from the oil tank with the stationary-side current-carrying contact being attached to the oil tank. a current-carrying cam rotatable around a center axis of the change-over switch; a parallel link mechanism receiving rotation force from the current-carrying cam, and moving the current-carrying conductor in and out in a radial direction of the change-over switch ; and a stationary-side current-carrying contact attached to an internal wall surface of the oil tank, and capable of contacting with and separating from the current-carrying contact, wherein the change-over switch is freely attachable to and detachable from the oil tank with the stationary-side current-carrying contact being attached to the oil tank.
Connecting part (100; 200) for a processing head for thermal material processing, comprising a body (106; 206) that extends along a longitudinal axis L, with an outer face (110; 112; 120; 212) and an inner face (140; 240; 244) with a front end (102; 202) and a rear end (104; 204), wherein the outer face and/or the inner face have/has at least one slot (130; 230), extending in the circumferential direction, with a slot depth (T130; T112; T120; T230) for receiving an O-ring or a profile ring, characterized in that the slot bottom (116 and 216) of the slot (130 and 230) exhibits, around the circumference, different distances (D116), extending through the longitudinal axis L and perpendicularly to the longitudinal axis L, between the opposite portions of the slot bottom (116 and 210) of the slot (130 and 230) and/or wherein at least one outer face (112 and/or 120) exhibits, around the circumference, different distances (D112, D120), extending through the longitudinal axis L and perpendicularly to the longitudinal axis L, between the opposite portions of the outer face and/or wherein at least one inner face exhibits, around the circumference, different distances (D244), extending through the longitudinal axis L and perpendicularly to the longitudinal axis L, between the opposite portions of the inner face . the slot bottom (116 and 216) of the slot (130 and 230) exhibits, around the circumference, different distances (D116), extending through the longitudinal axis L and perpendicularly to the longitudinal axis L, between the opposite portions of the slot bottom (116 and 210) of the slot (130 and 230) and/or wherein at least one outer face (112 and/or 120) exhibits, around the circumference, different distances (D112, D120), extending through the longitudinal axis L and perpendicularly to the longitudinal axis L, between the opposite portions of the outer face and/or wherein at least one inner face exhibits, around the circumference, different distances (D244), extending through the longitudinal axis L and perpendicularly to the longitudinal axis L, between the opposite portions of the inner face .
A wall element with at least one integrated rupturable area, which may be broken out in order to form a wall opening, characterised in that the wall element is made in an injection moulding process from foamed plastic material, that the at least one rupturable area has a plurality of webs distributed over its periphery, which are connected at their radially outer ends to the wall element , and that the at least one rupturable area has wall sections between the webs , which are spaced from the wall element by a gap and which have a smaller wall thickness than the webs .
A terminal casing, comprising a casing body, a metal frame , a first feeder unit , a second feeder unit and a main board grounding area , wherein the metal frame surrounds side edge parts of the casing body; the metal frame comprises a top frame , two side frames and a bottom frame , and the bottom frame comprises a horizontal part (101c-1) and two perpendicular parts (101c-2), the horizontal part (101c-1) and the two perpendicular parts (101c-2) being divided by two gaps; wherein a distance between the two gaps in the bottom frame is 40 millimeters to 50 millimeters; the main board grounding area is positioned in a specified area within the terminal casing, and is connected with the two side frames of the metal frame ; there is also a clearance area positioned between the main board grounding area and the bottom frame within the terminal casing; the first feeder unit and the second feeder unit are positioned in the clearance area ; and the first feeder unit and the horizontal part (101c-1) of the bottom frame form a first antenna unit , and the second feeder unit and any perpendicular part (101c-2) of the bottom frame form a second antenna unit orthogonal to the first antenna unit ; wherein the first antenna unit and the second antenna unit are configured to implement Long Term Evolution, LTE, inter-band carrier aggregation; wherein the second feeder unit comprises a second feeder part , a second grounding part and a second strip , the second feeder part and the second grounding part are positioned in the same conductive substance filled area, and the second strip is filled with a conductive substance and extends along a direction perpendicular to a direction along which the horizontal part (101c-1) is extending, a first end of the second strip forms a gap with the second feeder part and a second end of the second strip is connected with any perpendicular part (101c-2) of the bottom frame , and the second strip is configured for coupled feeding with the second feeder part , so that the second feeder unit and any perpendicular part (101c-2) of the bottom frame form the second antenna unit ; wherein a width of the gap between the second strip and the second feeder part is 1 millimeter to 4 millimeters, and wherein the first antenna unit is a low and intermediate-frequency antenna, and the second antenna unit is a high-frequency antenna; or, the first antenna unit is a high-frequency antenna, and the second antenna unit is a low-frequency antenna, a bandwidth of the low and intermediate-frequency antenna being 800MHZ-2170MHZ and a bandwidth of the high-frequency antenna being 2300MHZ-2690MHZ.