mhurhangee/patent-ind-claim-en huggingface dataset:
Prosthesis for supporting a breast structure within a patient, the prosthesis comprising : - a reinforcement part comprising a first fabric made of a first arrangement of yarns and configured to receive at least a curve-shaped lower portion of the breast structure, said reinforcement part being intended to be sutured to the chest wall or to the infra-mammary fold , said first arrangement of yarns conferring to said first fabric an elongation under 50N in the vertical direction, said elongation under 50N in the vertical direction of said first fabric being referred to as E1, - a fixation part comprising a second fabric made of a second arrangement of yarns and intended to be fixed to the pectoral muscle , said second arrangement of yarns conferring to said second fabric an elongation under 50N in the vertical direction, said elongation under 50N in the vertical direction of said second fabric being referred to as E2, and - a transition part comprising a third fabric made of a third arrangement of yarns, said transition part connecting together the reinforcement part and the fixation part, said third arrangement of yarns conferring to said third fabric an elongation under 50N in the vertical direction, said elongation under 50N in the vertical direction of said third fabric being referred to as E3, wherein E3 is greater than E1 and greater than E2. - a reinforcement part comprising a first fabric made of a first arrangement of yarns and configured to receive at least a curve-shaped lower portion of the breast structure, said reinforcement part being intended to be sutured to the chest wall or to the infra-mammary fold , said first arrangement of yarns conferring to said first fabric an elongation under 50N in the vertical direction, said elongation under 50N in the vertical direction of said first fabric being referred to as E1, - a fixation part comprising a second fabric made of a second arrangement of yarns and intended to be fixed to the pectoral muscle , said second arrangement of yarns conferring to said second fabric an elongation under 50N in the vertical direction, said elongation under 50N in the vertical direction of said second fabric being referred to as E2, and - a transition part comprising a third fabric made of a third arrangement of yarns, said transition part connecting together the reinforcement part and the fixation part, said third arrangement of yarns conferring to said third fabric an elongation under 50N in the vertical direction, said elongation under 50N in the vertical direction of said third fabric being referred to as E3,
Legwear comprising: a main body part including a sole part which covers a sole and a heel part which covers a heel, the main body part having elasticity; and a nonslip part provided inside of the heel part , the nonslip part having elasticity lower than that of cloth of the heel part , the nonslip part including strip-shaped parts which prevent the cloth of the heel part from expanding and contracting in a vertical direction and a horizontal direction, where the vertical direction is a direction perpendicular to the sole part and the horizontal direction is a width direction of the sole part , wherein the strip-shaped parts include: a first strip-shaped part which extends in a substantially horizontal direction; and one or more second strip-shaped parts each of which extends in a substantially vertical direction, characterized in that said one or more second strip-shaped parts are two second strip-shaped parts, the two second strip-shaped parts are provided such that a calcaneus is sandwiched therebetween, and in that the first strip-shaped part is provided across an Achilles' tendon, and the two strip-shaped parts extend from both ends of the first strip-shaped part toward the sole part . a main body part including a sole part which covers a sole and a heel part which covers a heel, the main body part having elasticity; and a nonslip part provided inside of the heel part , the nonslip part having elasticity lower than that of cloth of the heel part , the nonslip part including strip-shaped parts which prevent the cloth of the heel part from expanding and contracting in a vertical direction and a horizontal direction, where the vertical direction is a direction perpendicular to the sole part and the horizontal direction is a width direction of the sole part , wherein the strip-shaped parts include: a first strip-shaped part which extends in a substantially horizontal direction; and one or more second strip-shaped parts each of which extends in a substantially vertical direction, characterized in that said one or more second strip-shaped parts are two second strip-shaped parts, the two second strip-shaped parts are provided such that a calcaneus is sandwiched therebetween, and in that the first strip-shaped part is provided across an Achilles' tendon, and the two strip-shaped parts extend from both ends of the first strip-shaped part toward the sole part . a first strip-shaped part which extends in a substantially horizontal direction; and one or more second strip-shaped parts each of which extends in a substantially vertical direction, characterized in that said one or more second strip-shaped parts are two second strip-shaped parts, the two second strip-shaped parts are provided such that a calcaneus is sandwiched therebetween, and in that the first strip-shaped part is provided across an Achilles' tendon, and the two strip-shaped parts extend from both ends of the first strip-shaped part toward the sole part .
A solar cell comprising: a p-electrode ; an n-electrode ; a p-type light-absorbing layer located between the p-electrode and the n-electrode and mainly containing a cuprous oxide; and a first n-type layer which is located between the p-type light-absorbing layer and the n-electrode, characterized in that the first n-type layer mainly contains a compound represented by Ga x1 M1 x2 M2 x3 M3 x4 M4 x5 O x6 , the M1 being Hf or/and Zr, the M2 being one or more selected from the group consisting of In, Ti, and Zn, the M3 being Al or/and B, the M4 is one or more selected from the group consisting of Sn, Si, and Ge, the x1, the x2, and the x6 being more than 0, the x3, the x4, and the x5 being 0 or more, and the x6 when a sum of the x1, the x2, the x3, the x4, and the x5 is 2 being 3.0 or more and 3.8 or less. a p-electrode ; an n-electrode ; a p-type light-absorbing layer located between the p-electrode and the n-electrode and mainly containing a cuprous oxide; and a first n-type layer which is located between the p-type light-absorbing layer and the n-electrode,
Method for storing bit information in a binary memory area of a memory cell in which a charge carrier injection device (PN) has a p-doped section (LR) and an n-doped section (ER), wherein - the memory area (SB) can optionally store holes or electrons and allows a recombination of holes and electrons, - the charge carrier type of the charge carriers stored in the memory area defines the bit information of the memory area, - by means of the charge carrier injection device (PN) optionally holes or electrons can be injected into the memory area (SB) and the bit information can thus be changed, - the memory area comprises a double heterostructure, - the p-doped section (LR) and the n-doped section (ER) indirectly or directly adjoin the same side of the double-heterostructure, such that, depending on external electrical driving, the n-doped section can inject electrons or the p-doped section can inject holes from the same side into the double heterostructure, - wherein in the method the stored bit information is changed by virtue of the fact that in the case where holes are stored in the memory area, electrons are injected, which recombine with the stored holes, and the bit information is overwritten with excess electrons, and in the case where electrons are stored in the memory area, holes are injected, which recombine with the stored electrons, and the bit information is changed with excess holes. - the memory area (SB) can optionally store holes or electrons and allows a recombination of holes and electrons, - the charge carrier type of the charge carriers stored in the memory area defines the bit information of the memory area, - by means of the charge carrier injection device (PN) optionally holes or electrons can be injected into the memory area (SB) and the bit information can thus be changed, - the memory area comprises a double heterostructure, - the p-doped section (LR) and the n-doped section (ER) indirectly or directly adjoin the same side of the double-heterostructure, such that, depending on external electrical driving, the n-doped section can inject electrons or the p-doped section can inject holes from the same side into the double heterostructure, - wherein in the method the stored bit information is changed by virtue of the fact that in the case where holes are stored in the memory area, electrons are injected, which recombine with the stored holes, and the bit information is overwritten with excess electrons, and in the case where electrons are stored in the memory area, holes are injected, which recombine with the stored electrons, and the bit information is changed with excess holes.
A method in a control entity of a communication system for allocating resource to a link between an access node, AN, in communication with the control entity and a terminal device in a coverage of the AN, the method comprising: configuring (S701) a resource allocation template for a group of links in the communication system, wherein the resource allocation template includes reserved resource for the group of links and dedicated resource for the group of links, wherein the reserved resource is used for satisfying resource allocation requirement, of a link in the group of links, caused by an unpredictable condition, wherein the unpredictable condition comprises that channel quality loss experienced by the link in the group of links exceeds a first threshold, and wherein a subset of the dedicated resource for the group of links is dedicated resource for a subset of the group of links and the remaining dedicated resource is dedicated resource for another subset of the group of links; and transmitting (S703) the resource allocation template to an AN which serves at least one link in the group of links. configuring (S701) a resource allocation template for a group of links in the communication system, wherein the resource allocation template includes reserved resource for the group of links and dedicated resource for the group of links, wherein the reserved resource is used for satisfying resource allocation requirement, of a link in the group of links, caused by an unpredictable condition, wherein the unpredictable condition comprises that channel quality loss experienced by the link in the group of links exceeds a first threshold, and wherein a subset of the dedicated resource for the group of links is dedicated resource for a subset of the group of links and the remaining dedicated resource is dedicated resource for another subset of the group of links; and transmitting (S703) the resource allocation template to an AN which serves at least one link in the group of links.
Filter element which has an element material , which extends between two cap parts , and is supported on the inner circumference by a fluid-permeable supporting device , wherein a compensator device is arranged in the interior of the supporting device , characterised in that one cap part is an integral component of the compensator device .
A stable liquid formulation comprising a monoclonal antibody directed against IgE in an amount of at least about 80 mg/ml and comprising a salt and/or buffer in an amount of about 100-200 mM, wherein the formulation has a kinematic viscosity of about 50 mm 2 /s or less at 25°C, wherein said salt and/or buffer is a buffer comprising arginine or histidine or wherein said salt and/or buffer is arginine hydrochloride, and wherein the monoclonal antibody directed against IgE is rhuMAb-E25.
A single-piece corrugated component of an antenna comprising: - a main body having a generally hollowed frustopyramidal or frustoconical shape defining a body axis , the main body extending from a first end to a second end , the main body including a plurality of corrugations centered about the body axis , respectively, each said corrugation having a frustopyramidal ridge adjacent a respective channel and defining side surfaces thereof; - wherein a plurality of the frustopyramidal ridges having a respective inward virtual extension thereof crossing the body axis and intersecting the main body ; and characterized in that the side surfaces of each said frustopyramidal ridge extending inwardly and perpendicularly from an inner surface of the main body at an angle (A) relative to the body axis varying between about ten and about sixty degrees in a direction either toward the first end or the second end . - a main body having a generally hollowed frustopyramidal or frustoconical shape defining a body axis , the main body extending from a first end to a second end , the main body including a plurality of corrugations centered about the body axis , respectively, each said corrugation having a frustopyramidal ridge adjacent a respective channel and defining side surfaces thereof; - wherein a plurality of the frustopyramidal ridges having a respective inward virtual extension thereof crossing the body axis and intersecting the main body ; and
A surgical apparatus , comprising: a debriding device , which is fitted at a distal end of the surgical apparatus and is configured to debride tissue from a debriding site in a patient body; a hollow tube , configured to evacuate the debrided tissue away from the debriding site; an irrigation assembly , configured to apply irrigation fluid , via multiple orifices formed in the irrigation assembly, to the debrided tissue being evacuated, wherein the multiple orifices are distributed along the irrigation assembly, and either: the irrigation assembly is coupled to an inner perimeter of the hollow tube; or the hollow tube is perforated with multiple openings distributed along the hollow tube, and wherein the irrigation assembly is coupled to an outer perimeter of the hollow tube so that each of the orifices is facing a respective one of the openings. a debriding device , which is fitted at a distal end of the surgical apparatus and is configured to debride tissue from a debriding site in a patient body; a hollow tube , configured to evacuate the debrided tissue away from the debriding site; an irrigation assembly , configured to apply irrigation fluid , via multiple orifices formed in the irrigation assembly, to the debrided tissue being evacuated, wherein the multiple orifices are distributed along the irrigation assembly, and either: the irrigation assembly is coupled to an inner perimeter of the hollow tube; or the hollow tube is perforated with multiple openings distributed along the hollow tube, and wherein the irrigation assembly is coupled to an outer perimeter of the hollow tube so that each of the orifices is facing a respective one of the openings. the irrigation assembly is coupled to an inner perimeter of the hollow tube; or the hollow tube is perforated with multiple openings distributed along the hollow tube, and wherein the irrigation assembly is coupled to an outer perimeter of the hollow tube so that each of the orifices is facing a respective one of the openings.
An adhesive composition comprising (A) multi-stage latex polymer particles comprising (i) a first-stage polymer comprising acrylic acid monomer; a first vinyl monomer; (ii) a second-stage polymer bound to the first-stage polymer, the second-stage polymer comprising meth acrylic acid monomer; a second vinyl monomer, with the proviso that the second vinyl monomer is different than the meth acrylic acid monomer; (B) a linear diamine base; and (C) an ethoxylated surfactant. (A) multi-stage latex polymer particles comprising (i) a first-stage polymer comprising acrylic acid monomer; a first vinyl monomer; (ii) a second-stage polymer bound to the first-stage polymer, the second-stage polymer comprising meth acrylic acid monomer; a second vinyl monomer, with the proviso that the second vinyl monomer is different than the meth acrylic acid monomer; (i) a first-stage polymer comprising acrylic acid monomer; a first vinyl monomer; acrylic acid monomer; a first vinyl monomer; (ii) a second-stage polymer bound to the first-stage polymer, the second-stage polymer comprising meth acrylic acid monomer; a second vinyl monomer, with the proviso that the second vinyl monomer is different than the meth acrylic acid monomer; meth acrylic acid monomer; a second vinyl monomer, with the proviso that the second vinyl monomer is different than the meth acrylic acid monomer; (B) a linear diamine base; and (C) an ethoxylated surfactant.
An air suspension control system, comprising: • a manifold , defining: • a first and second port , each defining a first end, a second end, and a flow axis extending between the first and second ends, the first and second ports arranged with the respective flow axes sharing a first plane, • a channel intersecting the first and second ports between the respective first and second ends, • a cavity intersecting the second ends of the first and second port , • a first and second solenoid valve, each solenoid valve arranged within the cavity and coaxially arranged with the first and second ports, respectively, each solenoid valve comprising a connector and characterized in that it further comprises • a pressure sensor port arranged between the first and second port, the pressure sensor port separated from the first port, the second port, and the channel by a thickness of the manifold , the thickness configured to be selectively removed to fluidly connect the pressure sensor port and at least one of the first port, second port and the channel, • a pressure sensor arranged within the pressure sensor port , the pressure sensor comprising electrical leads; and • an electronics module arranged parallel the first plane, the electronics module and the manifold cooperatively enclosing the first solenoid valve, the second solenoid valve, and the pressure sensor therebetween, the electronics module configured to receive and electrically couple to the electrical leads of the pressure sensor and the connectors of the first and second solenoid valves. • a manifold , defining: • a first and second port , each defining a first end, a second end, and a flow axis extending between the first and second ends, the first and second ports arranged with the respective flow axes sharing a first plane, • a channel intersecting the first and second ports between the respective first and second ends, • a cavity intersecting the second ends of the first and second port , • a first and second solenoid valve, each solenoid valve arranged within the cavity and coaxially arranged with the first and second ports, respectively, each solenoid valve comprising a connector and characterized in that it further comprises • a pressure sensor port arranged between the first and second port, the pressure sensor port separated from the first port, the second port, and the channel by a thickness of the manifold , the thickness configured to be selectively removed to fluidly connect the pressure sensor port and at least one of the first port, second port and the channel, • a pressure sensor arranged within the pressure sensor port , the pressure sensor comprising electrical leads; and • an electronics module arranged parallel the first plane, the electronics module and the manifold cooperatively enclosing the first solenoid valve, the second solenoid valve, and the pressure sensor therebetween, the electronics module configured to receive and electrically couple to the electrical leads of the pressure sensor and the connectors of the first and second solenoid valves.
A method for producing a catalyst for an electrochemical cell, wherein - a graphitized porous carbon material is treated with - an oxygen-containing plasma or - an aqueous medium containing an oxidizing agent, wherein the temperature of the aqueous medium during the treatment of the graphitized porous carbon material is 70°C to 100°C, - at least one noble metal compound is deposited on the treated carbon material so that an impregnated carbon material is obtained, - the impregnated carbon material is brought into contact with a reducing agent so that the noble metal compound is reduced to a metallic noble metal and a noble-metal-loaded carbon material is obtained. - a graphitized porous carbon material is treated with - an oxygen-containing plasma or - an aqueous medium containing an oxidizing agent, wherein the temperature of the aqueous medium during the treatment of the graphitized porous carbon material is 70°C to 100°C, - an oxygen-containing plasma or - an aqueous medium containing an oxidizing agent, wherein the temperature of the aqueous medium during the treatment of the graphitized porous carbon material is 70°C to 100°C, - at least one noble metal compound is deposited on the treated carbon material so that an impregnated carbon material is obtained, - the impregnated carbon material is brought into contact with a reducing agent so that the noble metal compound is reduced to a metallic noble metal and a noble-metal-loaded carbon material is obtained.