mhurhangee/ep-ind-claims huggingface dataset:
A urethral implant configured for implantation within a restricted location of a urethra, said urethral implant is made of a single wire forming two adjacent closed shapes by coiling ends of said single wire on each other, each of said two adjacent closed shapes including a distal section (154 1, 154 2), a proximal section (156 1, 156 2), and two lateral sections (158 1, 158 2 & 158 2, 158 3) each extending between said distal section and said proximal section, each of said two adjacent closed shapes exhibiting an expanded configuration and is foldable into a compressed configuration, wherein said two adjacent closed shapes have a common lateral section (158 2), a first closed shape is formed by said coiling ends of said single wire on each other thus creating wire end extensions and thus forming a first lateral section and a second lateral section, a second closed shape is formed by coiling said two wire end extensions one with the other thus forming a third lateral section, said second lateral section being said common lateral section, wherein said urethral implant being configured to expand from said compressed configuration to said expanded configuration such that the distance between lateral sections of said single wire increases, relative to the distance between said lateral sections of said single wire in said compressed configuration, wherein said urethral implant being for applying continuous pressure on surrounding tissue thereby applying continuous radial pressure on at least one of a urethral wall and tissue surrounding the urethral wall in said restricted location, said pressure being sufficient to cause extending the urinal passage. wherein said two adjacent closed shapes have a common lateral section (158 2), a first closed shape is formed by said coiling ends of said single wire on each other thus creating wire end extensions and thus forming a first lateral section and a second lateral section, a second closed shape is formed by coiling said two wire end extensions one with the other thus forming a third lateral section, said second lateral section being said common lateral section, wherein said urethral implant being configured to expand from said compressed configuration to said expanded configuration such that the distance between lateral sections of said single wire increases, relative to the distance between said lateral sections of said single wire in said compressed configuration, wherein said urethral implant being for applying continuous pressure on surrounding tissue thereby applying continuous radial pressure on at least one of a urethral wall and tissue surrounding the urethral wall in said restricted location, said pressure being sufficient to cause extending the urinal passage.
A power transmission V-belt comprising a tension member, an adhesion rubber layer in which at least part of the tension member is embedded, and a tension rubber layer and a compression rubber layer stacked via the adhesion rubber layer, wherein: a rubber hardness of the tension rubber layer is smaller than a rubber hardness of the compression rubber layer; in the adhesion rubber layer, a rubber hardness on a tension rubber layer side relative to the tension member is smaller than a rubber hardness on a compression rubber layer side; and the adhesion rubber layer is formed of a plurality of rubber layers and comprises a first adhesion rubber layer put into contact with the tension rubber layer and a second adhesion rubber layer put into contact with the compression rubber layer, wherein the rubber hardness of the first adhesion rubber layer is lower than the hardness of the tension rubber layer, and the rubber hardness of the second adhesion rubber layer is lower than the hardness of the compression rubber layer. a rubber hardness of the tension rubber layer is smaller than a rubber hardness of the compression rubber layer; in the adhesion rubber layer, a rubber hardness on a tension rubber layer side relative to the tension member is smaller than a rubber hardness on a compression rubber layer side; and the adhesion rubber layer is formed of a plurality of rubber layers and comprises a first adhesion rubber layer put into contact with the tension rubber layer and a second adhesion rubber layer put into contact with the compression rubber layer, wherein the rubber hardness of the first adhesion rubber layer is lower than the hardness of the tension rubber layer, and the rubber hardness of the second adhesion rubber layer is lower than the hardness of the compression rubber layer.
A method in a control node (151, 160) of a wireless communication network for allocating resource elements of a transmission resource (40, 50, 120, 130, 140) to a control channel, wherein the transmission resource comprises a first number of resource blocks each comprising one or a plurality of subsets of resource elements (44, 46, 49), the method comprising the steps: Obtaining a bitmap for configuration of the transmission resource (40, 50, 120, 130, 140), wherein the bitmap is adapted to identify at least one subset of resource elements within the transmission resource (40, 50, 120, 130, 140); Allocating the at least one identified subset of resource elements to the control channel; Transmitting the bitmap to a receiving node (153, 154, 170); and Transmitting control data on the at least one subset of resource elements allocated to the control channel to the receiving node (153, 154, 170). Obtaining a bitmap for configuration of the transmission resource (40, 50, 120, 130, 140), wherein the bitmap is adapted to identify at least one subset of resource elements within the transmission resource (40, 50, 120, 130, 140); Allocating the at least one identified subset of resource elements to the control channel; Transmitting the bitmap to a receiving node (153, 154, 170); and Transmitting control data on the at least one subset of resource elements allocated to the control channel to the receiving node (153, 154, 170).
A method of manufacturing a hydrocarbon gas reforming catalyst precursor comprising a NiO-Sr 2 TiO 4 solid solution in which NiO is dissolved in Sr 2 TiO 4, the method comprising the steps of: providing SrCO 3 and TiO 2 in a molar ratio of 2:1, adding NiO and mixing so as to attain a ratio of 2.2 to 13.5 parts by mol relative to 100 parts by mol of the Sr 2 TiO 4, to be produced, adding a binder to the mixture for granulation so as to obtain a spherical granulated body having a diameter of 2 to 5 mm, and producing the NiO-Sr 2 TiO 4 solid solution in which NiO is dissolved in Sr 2 TiO 4 by placing said granulated body in air and firing said granulated body at a temperature of 1100°C for one hour. providing SrCO 3 and TiO 2 in a molar ratio of 2:1, adding NiO and mixing so as to attain a ratio of 2.2 to 13.5 parts by mol relative to 100 parts by mol of the Sr 2 TiO 4, to be produced, adding a binder to the mixture for granulation so as to obtain a spherical granulated body having a diameter of 2 to 5 mm, and producing the NiO-Sr 2 TiO 4 solid solution in which NiO is dissolved in Sr 2 TiO 4 by placing said granulated body in air and firing said granulated body at a temperature of 1100°C for one hour.
A dialysis tubing set comprising: at least one fluid line configured to connect a dialysis fluid source and a pump of a dialysis machine; and a flow chamber connected to the at least one fluid line, characterized in that the flow chamber has a thermochromic material configured to change color when exposed to a specified temperature range, wherein the thermochromic material is configured as an insert and is positioned within the at least one fluid line. at least one fluid line configured to connect a dialysis fluid source and a pump of a dialysis machine; and a flow chamber connected to the at least one fluid line, characterized in that the flow chamber has a thermochromic material configured to change color when exposed to a specified temperature range, wherein the thermochromic material is configured as an insert and is positioned within the at least one fluid line.
An electric power generator comprising at least a first electrode and a second electrode, wherein the electric power generator comprises an active material between said electrodes (11,12), said active material comprising at least one oxygen-containing compound selected from the group consisting of MgO, ZnO, ZrOCl 2, ZrO 2, SiO 2, Bi 2 O 3, Fe 3 O 4, Al 2 O 3,TiO 2, BeO, CaO, Ga 2 O 3, In203, GeO 2, SnO 2 and PbO 2, wherein the particle size of the oxygen-containing compound has an average diameter in the range from 10 nm to 40 μm and wherein a thickener additive selected from the group consisting of agar agar, xanthan gum, methyl cellulose, and arabic gum is absent and wherein the at least one oxygen-containing compound or a mixture thereof is in an amount in the range from 50% to 100% (w/w) with respect to the amount of the active material.
An article (100, 300, 400, 500, 900) the article comprising: a first zone, the first zone including a first region of a knitted base layer (340, 440, 540, 940) and a knitted second layer Z (350, 450, 550, 950), wherein the second layer (350, 450, 550, 950) is disposed primarily on one side of the base layer (340, 440, 540, 940), the base layer (340, 440, 540, 940) and the second layer (350, 450, 550, 950) being at least partially coextensive to each other; and a second zone including a second region of the base layer (340, 440, 550, 940), wherein the second region of the base layer (340, 440, 540, 940) and the first region of the base layer (340, 440, 540, 940) have a common yarn, and wherein the second region of the base layer (340, 440, 540, 940) and the second layer (350, 450, 550, 950) have a common yarn, wherein the first zone has a first degree of elasticity such that it has a first elongation when subjected to a tensile load, characterized in that the second zone has a second degree of elasticity such that it has a second elongation when subjected to the tensile load, the first elongation being at least 5% greater than the second elongation, wherein the second layer (350, 450, 550, 950) includes a first region in a first portion of the first zone and a second region in a second portion of the first zone, wherein the first region has at least one property being different than the second region, and wherein the first and second regions of the second layer (350, 450, 550, 950) are spaced apart on the base layer. a first zone, the first zone including a first region of a knitted base layer (340, 440, 540, 940) and a knitted second layer Z (350, 450, 550, 950), wherein the second layer (350, 450, 550, 950) is disposed primarily on one side of the base layer (340, 440, 540, 940), the base layer (340, 440, 540, 940) and the second layer (350, 450, 550, 950) being at least partially coextensive to each other; and a second zone including a second region of the base layer (340, 440, 550, 940), wherein the second region of the base layer (340, 440, 540, 940) and the first region of the base layer (340, 440, 540, 940) have a common yarn, and wherein the second region of the base layer (340, 440, 540, 940) and the second layer (350, 450, 550, 950) have a common yarn, wherein the first zone has a first degree of elasticity such that it has a first elongation when subjected to a tensile load, characterized in that the second zone has a second degree of elasticity such that it has a second elongation when subjected to the tensile load, the first elongation being at least 5% greater than the second elongation, wherein the second layer (350, 450, 550, 950) includes a first region in a first portion of the first zone and a second region in a second portion of the first zone, wherein the first region has at least one property being different than the second region, and wherein the first and second regions of the second layer (350, 450, 550, 950) are spaced apart on the base layer.
A refrigerator comprising: a cabinet in which an upper storage space and a lower storage space are defined; a door part inserted and withdrawn to open and close the lower storage space; and a drawer part connected to the door part so as to be inserted into and withdrawn from the lower storage space, wherein the drawer part comprises at least a bottom surface and a side surface part vertically extending from each of both side ends of the bottom surface, characterized in that the refrigerator comprises: a support member which is provided in the drawer part and on which a food or container is seated; an elevation device disposed on each of both side surfaces of the drawer part and coupled to each of both side ends of the support member to vertically elevate the support member in a state in which a drawer door is withdrawn; a mounting part recessed inside both side surfaces of the drawer part so that elevation device is mounted inside the mounting part; a side cover disposed on each of both sides of the support member configure to cover the mounting part. a support member which is provided in the drawer part and on which a food or container is seated; an elevation device disposed on each of both side surfaces of the drawer part and coupled to each of both side ends of the support member to vertically elevate the support member in a state in which a drawer door is withdrawn; a mounting part recessed inside both side surfaces of the drawer part so that elevation device is mounted inside the mounting part; a side cover disposed on each of both sides of the support member configure to cover the mounting part.
A dewatering screen for manufacturing paper having a paper-stiffening watermark, in which - the paper-stiffening watermark is specified in the form of at least one region of increased paper thickness in whose interior a watermark fine structure that appears bright in transmitted light is present in the form of patterns, characters or a code, - the dewatering screen comprises a carrier mold having a mold surface on which paper is accumulated, as well as, arranged in a sub-region of the carrier mold, a perforated plastic watermark insert, - to produce the paper-stiffening watermark, the plastic watermark insert comprising at least one lowered region that lies below the mold surface and in whose interior are arranged motif elements in the form of patterns, characters or a code that protrude from the lowered region and that serve to produce the watermark fine structure, the lowered regions of the plastic watermark insert being formed to be elongated having a length-to-width ratio of 5 or more, and comprising a width of 2.5 mm or less. - the paper-stiffening watermark is specified in the form of at least one region of increased paper thickness in whose interior a watermark fine structure that appears bright in transmitted light is present in the form of patterns, characters or a code, - the dewatering screen comprises a carrier mold having a mold surface on which paper is accumulated, as well as, arranged in a sub-region of the carrier mold, a perforated plastic watermark insert, - to produce the paper-stiffening watermark, the plastic watermark insert comprising at least one lowered region that lies below the mold surface and in whose interior are arranged motif elements in the form of patterns, characters or a code that protrude from the lowered region and that serve to produce the watermark fine structure, the lowered regions of the plastic watermark insert being formed to be elongated having a length-to-width ratio of 5 or more, and comprising a width of 2.5 mm or less.
A receiving structure which is provided for casting into a matrix material, in particular concrete, of a building element and has at least two receiving elements which project out of the receiving structure in such a way that they project at least partially into the matrix material, wherein the at least two receiving elements each have a receiving space, which has an opening towards the surface of the building component, which opening is accessible from the outside and through which at least one functional component (60, 65, 70, 75, 80, 82, 84, 86, 88, 89) is introduced for insertion into the receiving space, at least one position-securing element being provided for securing the position of a textile reinforcement relative to the receiving structure, and wherein the receiving structure is designed to essentially predetermine the outer shape of at least one surface of the structural element, characterised in that the at least two receiving elements are connected to one another in an articulated manner by at least one web by means of a pivot connection, and in that the at least one web has thin sections, which are designed as deformable web sections, and a thick section, which is designed as a rigid web section, so that the receiving structure can be curved several times and the receiving elements assume a position essentially tangential to the curved surface, but do not themselves undergo any deformation.
A fusion protein comprising (i) a LIGHT cytokine, or a receptor binding domain thereof, and (ii) a collectin trimerization domain comprising surfactant protein D or the neck and carbohydrate binding domain of surfactant protein D, wherein (i) comprises amino acids 91-240 of SEQ ID NO:16, and wherein (ii) comprises amino acids 225-257 of human surfactant protein-D of SEQ ID NO:21, and wherein (ii) is located C-terminally of (i). (i) a LIGHT cytokine, or a receptor binding domain thereof, and (ii) a collectin trimerization domain comprising surfactant protein D or the neck and carbohydrate binding domain of surfactant protein D, wherein (i) comprises amino acids 91-240 of SEQ ID NO:16, and wherein (ii) comprises amino acids 225-257 of human surfactant protein-D of SEQ ID NO:21, and wherein (ii) is located C-terminally of (i).
A method of calibrating a motor imagery detection module, the method comprising, acquiring Electroencephalography data from a subject; decomposing the acquired EEG data into multi-time segments and a plurality of frequency bands for each of said multi-time segments; computing a projection matrix for spatial filtering using said multi-time segments for each of the plurality of frequency bands; selecting classification features from the plurality of frequency bands for calibrating the motor imagery detection module; wherein the feature selection comprises modelling an idle state ω n of the subject by M sub-classes χ j, j =1,..., M.
A compound of general formula in which R 1 represents a group of the formula in which # represents the point of attachment to the 1,2,4-triazolyl-ring, or one of the pharmaceutically acceptable salts thereof, solvates thereof or solvates of the salts thereof. R 1 represents a group of the formula in which # represents the point of attachment to the 1,2,4-triazolyl-ring, # represents the point of attachment to the 1,2,4-triazolyl-ring,
Three-phase capacitor formed by two aligned cylinders comprising a first cylinder and a second cylinder, where each of the cylinders comprises an outer part which forms a first capacitor and a second capacitor, respectively, while the inner part of each of the first cylinder and the second cylinder forms a third capacitor and a fourth capacitor, respectively, wherein each capacitor is separated from the adjacent capacitor of each cylinder by an insulating material which allows the displacement of the inner part with respect to the outer one of each cylinder in case of overpressure, characterized in that connected in parallel the capacitors formed by the inner parts of each cylinder together take the same capacitance value as the capacitor defined in the outer parts of each cylinder, and all said capacitors form a delta connection with phases A, B and C,
Method for aligning two workpieces (102, 103; 602, 603) using the manipulator of Claim 12 for forming a join, wherein the method comprises the following steps: - placing or keeping available at least two workpieces (102, 103; 602, 603) in a preparation station (3; 503); - gripping the first workpiece (102; 602) by the first gripper (13; 513); - gripping the second workpiece (103; 603) by the second gripper (14; 514); - retrieving the workpieces (102, 103; 602, 603) from the preparation station (3; 503) and transporting the workpieces (102, 103; 602, 603) to a machining station (4; 504); - wherein, in a longitudinal alignment step, the first workpiece (103; 603) is aligned relative to the second workpiece (103; 603) along at least one of the workpiece edges (104a, 105a; 604a, 604b) by a linear movement of at least one of the grippers (13, 14; 513, 514) relative to the respective other gripper (13, 14; 513, 514); and - wherein the longitudinal alignment step is carried out while transporting the workpieces (102, 103; 602, 603) from the preparation station (3; 503) to the machining station(4; 504); wherein the first gripper (13; 513) and the second gripper (14; 514) are disposed on a common manipulator (2; 502), preferably on a common multi-axis robot, and are conjointly moved in space from the preparation station (3; 503) to the machining station (4; 504) by means of this manipulator (2; 502). - placing or keeping available at least two workpieces (102, 103; 602, 603) in a preparation station (3; 503); - gripping the first workpiece (102; 602) by the first gripper (13; 513); - gripping the second workpiece (103; 603) by the second gripper (14; 514); - retrieving the workpieces (102, 103; 602, 603) from the preparation station (3; 503) and transporting the workpieces (102, 103; 602, 603) to a machining station (4; 504); - wherein, in a longitudinal alignment step, the first workpiece (103; 603) is aligned relative to the second workpiece (103; 603) along at least one of the workpiece edges (104a, 105a; 604a, 604b) by a linear movement of at least one of the grippers (13, 14; 513, 514) relative to the respective other gripper (13, 14; 513, 514); and - wherein the longitudinal alignment step is carried out while transporting the workpieces (102, 103; 602, 603) from the preparation station (3; 503) to the machining station(4; 504); wherein the first gripper (13; 513) and the second gripper (14; 514) are disposed on a common manipulator (2; 502), preferably on a common multi-axis robot, and are conjointly moved in space from the preparation station (3; 503) to the machining station (4; 504) by means of this manipulator (2; 502).