mhurhangee/patent-ind-claim-en huggingface dataset:
An articulating ultrasonic surgical end effector , comprising: a clevis ; a transducer housing pivotably coupled to the clevis; an ultrasonic transducer disposed within the transducer housing; a waveguide extending distally from the ultrasonic transducer; an ultrasonic blade disposed at the distal end of the waveguide, wherein ultrasonic energy produced by the ultrasonic transducer is transmitted along the waveguide to the ultrasonic blade for treating tissue therewith; a shaft extending distally from the transducer housing about at least a portion of the ultrasonic blade; and a clamp arm pivotably coupled to the shaft and movable relative to the ultrasonic blade between an open position and a clamping position; wherein a pulley arrangement and cable operably couples the transducer housing with the clevis to permit pivoting of the transducer housing relative to the clevis, and wherein the pulley arrangement comprises at least one proximal pulley and at least one distal pulley positioned adjacent each other within the clevis and wherein first and second cables are each routed about the at least one proximal pulley and are secured to the at least one distal pulley so that proximal pulling of the first cable urges the at least one distal pulley and, thus, the transducer housing to pivot relative to the clevis in a first direction, while proximal pulling of the second cable urges the at least one distal pulley and, thus, the transducer housing to pivot relative to the clevis in a second, opposite direction. a clevis ; a transducer housing pivotably coupled to the clevis; an ultrasonic transducer disposed within the transducer housing; a waveguide extending distally from the ultrasonic transducer; an ultrasonic blade disposed at the distal end of the waveguide, wherein ultrasonic energy produced by the ultrasonic transducer is transmitted along the waveguide to the ultrasonic blade for treating tissue therewith; a shaft extending distally from the transducer housing about at least a portion of the ultrasonic blade; and a clamp arm pivotably coupled to the shaft and movable relative to the ultrasonic blade between an open position and a clamping position; wherein a pulley arrangement and cable operably couples the transducer housing with the clevis to permit pivoting of the transducer housing relative to the clevis, and wherein the pulley arrangement comprises at least one proximal pulley and at least one distal pulley positioned adjacent each other within the clevis and wherein first and second cables are each routed about the at least one proximal pulley and are secured to the at least one distal pulley so that proximal pulling of the first cable urges the at least one distal pulley and, thus, the transducer housing to pivot relative to the clevis in a first direction, while proximal pulling of the second cable urges the at least one distal pulley and, thus, the transducer housing to pivot relative to the clevis in a second, opposite direction.
An ultrasound system for use on a subject, the system comprising: a robotic headset configured to be worn by the subject, the robotic headset comprising automated robotics configured to position a probe structure with respect to the subject; the probe structure comprising: a probe configured to emit acoustic energy and that defines a hollow ; a load cell underneath and aligned with the probe and that comprises a protrusion , wherein the load cell is configured to take a force reading indicating an amount of force exerted against the probe, wherein the automated robotics are further configured to adjust the amount of force exerted against the subject by the probe in response to the force reading, and wherein the hollow of the probe receives the protrusion of the load cell for securing the load cell and the probe together ; and a probe hub including a cavity for receiving the probe and the load cell. a robotic headset configured to be worn by the subject, the robotic headset comprising automated robotics configured to position a probe structure with respect to the subject; the probe structure comprising: a probe configured to emit acoustic energy and that defines a hollow ; a load cell underneath and aligned with the probe and that comprises a protrusion , wherein the load cell is configured to take a force reading indicating an amount of force exerted against the probe, wherein the automated robotics are further configured to adjust the amount of force exerted against the subject by the probe in response to the force reading, and wherein the hollow of the probe receives the protrusion of the load cell for securing the load cell and the probe together ; and a probe configured to emit acoustic energy and that defines a hollow ; a load cell underneath and aligned with the probe and that comprises a protrusion , wherein the load cell is configured to take a force reading indicating an amount of force exerted against the probe, wherein the automated robotics are further configured to adjust the amount of force exerted against the subject by the probe in response to the force reading, and wherein the hollow of the probe receives the protrusion of the load cell for securing the load cell and the probe together ; and a probe hub including a cavity for receiving the probe and the load cell.
A procedure for filling pharmaceutical containers with at least one solid and sealing them under sterile conditions, comprising the steps of: a) providing a pharmaceutical container having walls and a bottom, b) dispensing the solid into the pharmaceutical container by means of a dispensing needle , gravimetrically checking the weight of solid dispensed into the container ; and c) sealing the pharmaceutical container with a stopper , wherein, characterised in that , in at least one of steps a), b) and c), or in a plurality thereof in any combination, the static electric charges on the inside walls of the container , on the solid dispensed inside the container, and/or on any parts in contact with the inside walls of the container or with the solid dispensed inside the container, are neutralised by means of an ioniser to which an ionisation potential is applied such that the electrostatic charge inside the container after each ionisation is less than 2000 volts, and wherein, between step b) and step c), an additional static electric charge ionisation is carried out inside the pharmaceutical container . a) providing a pharmaceutical container having walls and a bottom, b) dispensing the solid into the pharmaceutical container by means of a dispensing needle , gravimetrically checking the weight of solid dispensed into the container ; and c) sealing the pharmaceutical container with a stopper , in at least one of steps a), b) and c), or in a plurality thereof in any combination, the static electric charges on the inside walls of the container , on the solid dispensed inside the container, and/or on any parts in contact with the inside walls of the container or with the solid dispensed inside the container, are neutralised by means of an ioniser to which an ionisation potential is applied such that the electrostatic charge inside the container after each ionisation is less than 2000 volts, and wherein, between step b) and step c), an additional static electric charge ionisation is carried out inside the pharmaceutical container .
An aqueous binder composition comprising: from 10 wt.% to 20 wt.% of at least one long-chain polyol having at least two hydroxyl groups and a number average molecular weight of at least 2,000 Daltons; from 65 wt% to 80 wt% of a cross-linking agent comprising at least two carboxylic acid groups; and from 5 wt.% to 25 wt.% of a short-chain polyol having at least two hydroxyl groups and a number average molecular weight less than 2,000 Daltons; and a cure accelerator, wherein a ratio of molar equivalents of carboxylic acid groups to hydroxyl groups is from 1/0.3 to 1.0/2.0 and a molar ratio of long-chain polyol to short-chain polyol is from 0.4/0.6 to 0.6/0.4, and wherein the wt.% is based on the total solids content of the aqueous binder composition. from 10 wt.% to 20 wt.% of at least one long-chain polyol having at least two hydroxyl groups and a number average molecular weight of at least 2,000 Daltons; from 65 wt% to 80 wt% of a cross-linking agent comprising at least two carboxylic acid groups; and from 5 wt.% to 25 wt.% of a short-chain polyol having at least two hydroxyl groups and a number average molecular weight less than 2,000 Daltons; and a cure accelerator, wherein a ratio of molar equivalents of carboxylic acid groups to hydroxyl groups is from 1/0.3 to 1.0/2.0 and a molar ratio of long-chain polyol to short-chain polyol is from 0.4/0.6 to 0.6/0.4, and wherein the wt.% is based on the total solids content of the aqueous binder composition.
A pellet hopper assembly, comprising: a hopper bottom, comprising: a first panel connected to a second panel at a first interface and the second panel connected to a third panel at a second interface, wherein a first inner edge of the first panel, a second inner edge of the second panel, and a third inner edge of the third panel together define a pellet evacuation opening , and wherein: the first panel forms a first nonzero angle with respect to a horizontal plane such that the first panel tilts downward toward the pellet evacuation opening; the second panel forms a second nonzero angle with respect to the horizontal plane such that the second panel tilts downward toward the pellet evacuation opening; and the third panel forms a third nonzero angle with respect to the horizontal plane such that the third panel tilts downward toward the pellet evacuation opening; and a wall panel extending between and connected to the first and third panels at third and fourth interfaces, respectively, the wall panel comprising: a main surface extending vertically upward from the third and fourth interfaces; and a bottom angled surface connected to the main surface, the bottom angled surface including a fourth inner edge that at least partially defines the pellet evacuation opening, the bottom angled surface forming a fourth nonzero angle with respect to the horizontal plane such that the bottom angled surface tilts downward toward the pellet evacuation opening. the first panel forms a first nonzero angle with respect to a horizontal plane such that the first panel tilts downward toward the pellet evacuation opening; the second panel forms a second nonzero angle with respect to the horizontal plane such that the second panel tilts downward toward the pellet evacuation opening; and the third panel forms a third nonzero angle with respect to the horizontal plane such that the third panel tilts downward toward the pellet evacuation opening; and a wall panel extending between and connected to the first and third panels at third and fourth interfaces, respectively, the wall panel comprising: a main surface extending vertically upward from the third and fourth interfaces; and a bottom angled surface connected to the main surface, the bottom angled surface including a fourth inner edge that at least partially defines the pellet evacuation opening, the bottom angled surface forming a fourth nonzero angle with respect to the horizontal plane such that the bottom angled surface tilts downward toward the pellet evacuation opening. a main surface extending vertically upward from the third and fourth interfaces; and a bottom angled surface connected to the main surface, the bottom angled surface including a fourth inner edge that at least partially defines the pellet evacuation opening, the bottom angled surface forming a fourth nonzero angle with respect to the horizontal plane such that the bottom angled surface tilts downward toward the pellet evacuation opening.
A material system for the layered construction of models, comprising a binder, said binder being an aqueous dispersion which can be destabilized by a pH change, and particulate material for the layered construction, characterized in that the essentially aqueous dispersion comprises particulate constituents as a component, said constituents being selected from the group consisting of polymeric particles such as polystyrene, polymethyl methacrylate (PMMA), polyethyl methacrylate (PEMA), or/and radically produced copolymers, polyurethanes, resol resins, novolaks, phenolic resins, and the particulate material or a pH modifier additive being included to destabilize the aqueous dispersion by means of a reaction of the dispersion with the particulate material or the acid or ester compound therein, or the binder including one or more phenyl alcohols and the particulate material comprising an ester.
An integrated circuit, comprising: a substrate comprising a semiconductor material; an interconnect region disposed above the substrate, comprising a dielectric layer stack comprising dielectric material; contacts disposed in the dielectric layer stack; interconnects disposed in the dielectric layer stack; and vias disposed in the dielectric layer stack; a heat generating component disposed in the substrate and the interconnect region, proximate to a boundary between the substrate and the interconnect region; and a thermal routing structure disposed in the interconnect region, the thermal routing structure thermally coupled to the heat-generating component, the thermal routing structure includes a cohered nanoparticle film comprising nanoparticles substantially free of an organic binder material, a graphitic material adjacent to a portion of the cohered nanoparticle film, and wherein a thermal conductivity of the thermal routing structure is higher than a thermal conductivity of dielectric material contacting the thermal routing structure; and a dielectric isolation layer adjacent to the thermal routing structure and over a first surface of the interconnect region, the dielectric isolation layer comprising electrically non-conductive nanoparticles having a high thermal conductivity, and the dielectric isolation layer electrically isolating the interconnects from the thermal routing structure. a substrate comprising a semiconductor material; an interconnect region disposed above the substrate, comprising a dielectric layer stack comprising dielectric material; contacts disposed in the dielectric layer stack; interconnects disposed in the dielectric layer stack; and vias disposed in the dielectric layer stack; a dielectric layer stack comprising dielectric material; contacts disposed in the dielectric layer stack; interconnects disposed in the dielectric layer stack; and vias disposed in the dielectric layer stack; a heat generating component disposed in the substrate and the interconnect region, proximate to a boundary between the substrate and the interconnect region; and a thermal routing structure disposed in the interconnect region, the thermal routing structure thermally coupled to the heat-generating component, the thermal routing structure includes a cohered nanoparticle film comprising nanoparticles substantially free of an organic binder material, a graphitic material adjacent to a portion of the cohered nanoparticle film, and wherein a thermal conductivity of the thermal routing structure is higher than a thermal conductivity of dielectric material contacting the thermal routing structure; and a dielectric isolation layer adjacent to the thermal routing structure and over a first surface of the interconnect region, the dielectric isolation layer comprising electrically non-conductive nanoparticles having a high thermal conductivity, and the dielectric isolation layer electrically isolating the interconnects from the thermal routing structure.
A compound of formula (I) wherein R 1 is selected from i) H, ii) C 1-6 -alkyl, iii) C 1-6 -alkoxy, iv) C 1-6 -alkoxy-C 1-6 -alkyl, v) hydroxy, vi) hydroxy-C 1-6 -alkyl, vii) C 3-8 -cycloalkyl optionally substituted by R 7 , R 8 and R 9 , viii) amino-C 1-6 -alkyl ix) heteroaryl optionally substituted by R 7 , R 8 and R 9 , and x) heterocycloalkyl optionally substituted by R 7 , R 8 and R 9 ; R 3 is selected from i) Cl, and ii) F; X is selected from i) CR 6 , and ii) N; R 6 is selected from i) H, ii) Cl, and iii) F; R 4 is selected from i) Br, and ii) Cl; R 5 is selected from i) C 1-6 -alkyl, i) C 1-6 -alkoxy, ii) halogen, iii) halo-C 1-6 -alkyl, iv) cyano, and v) C 3-8 -cycloalkyl; R 7 , R 8 and R 9 are independently selected from i) C 1-6 -alkyl, and ii) C 1-6 -alkoxy; or pharmaceutically acceptable salts or esters thereof. R 1 is selected from i) H, ii) C 1-6 -alkyl, iii) C 1-6 -alkoxy, iv) C 1-6 -alkoxy-C 1-6 -alkyl, v) hydroxy, vi) hydroxy-C 1-6 -alkyl, vii) C 3-8 -cycloalkyl optionally substituted by R 7 , R 8 and R 9 , viii) amino-C 1-6 -alkyl ix) heteroaryl optionally substituted by R 7 , R 8 and R 9 , and x) heterocycloalkyl optionally substituted by R 7 , R 8 and R 9 ; i) H, ii) C 1-6 -alkyl, iii) C 1-6 -alkoxy, iv) C 1-6 -alkoxy-C 1-6 -alkyl, v) hydroxy, vi) hydroxy-C 1-6 -alkyl, vii) C 3-8 -cycloalkyl optionally substituted by R 7 , R 8 and R 9 , viii) amino-C 1-6 -alkyl ix) heteroaryl optionally substituted by R 7 , R 8 and R 9 , and x) heterocycloalkyl optionally substituted by R 7 , R 8 and R 9 ; R 3 is selected from i) Cl, and ii) F; i) Cl, and ii) F; X is selected from i) CR 6 , and ii) N; i) CR 6 , and ii) N; R 6 is selected from i) H, ii) Cl, and iii) F; i) H, ii) Cl, and iii) F; R 4 is selected from i) Br, and ii) Cl; i) Br, and ii) Cl; R 5 is selected from i) C 1-6 -alkyl, i) C 1-6 -alkoxy, ii) halogen, iii) halo-C 1-6 -alkyl, iv) cyano, and v) C 3-8 -cycloalkyl; i) C 1-6 -alkyl, i) C 1-6 -alkoxy, ii) halogen, iii) halo-C 1-6 -alkyl, iv) cyano, and v) C 3-8 -cycloalkyl; R 7 , R 8 and R 9 are independently selected from i) C 1-6 -alkyl, and ii) C 1-6 -alkoxy; i) C 1-6 -alkyl, and ii) C 1-6 -alkoxy;
A method of wireless communication of a user equipment, UE, comprising: receiving , from a base station, a configuration for carrier aggregation for a primary cell, PCell, and one or more secondary cells, SCells, wherein a total bandwidth of the PCell and the one or more SCells is not a multiple of a defined bandwidth; and communicating with the base station through the PCell and the one or more SCells, wherein the communicating through the one or more SCells is based on a radio resource management, RRM, measurement associated with the PCell and is not based on any RRM measurement associated with the one or more SCells. receiving , from a base station, a configuration for carrier aggregation for a primary cell, PCell, and one or more secondary cells, SCells, wherein a total bandwidth of the PCell and the one or more SCells is not a multiple of a defined bandwidth; and communicating with the base station through the PCell and the one or more SCells, wherein the communicating through the one or more SCells is based on a radio resource management, RRM, measurement associated with the PCell and is not based on any RRM measurement associated with the one or more SCells.
An information processing apparatus (12;13A;13B) comprising: a first generator configured to generate first shaping data for shaping a first solid object , said first solid object representing identification information allowing identification of a shaping unit for shaping solid objects, wherein the shaping unit is a 3D printer; wherein the first solid object is in a form of a three-dimensionally shaped pattern in which a plurality of layer regions are stacked and at least one pair of adjacent ones of the layer regions differ from each other in at least one feature quantity, wherein the feature quantity is a value representing visually or mechanically distinguishable features of the adjacent layer regions; a second generator (16C;17C) configured to generate third shaping data that includes second shaping data for shaping a second solid object serving as a shaping target and also includes the first shaping data, the third shaping data being used for shaping a third solid object in which the first solid object is arranged in the second solid object; and a shaping controller configured to control the shaping unit to shape the third solid object using the third shaping data. a first generator configured to generate first shaping data for shaping a first solid object , said first solid object representing identification information allowing identification of a shaping unit for shaping solid objects, wherein the shaping unit is a 3D printer; wherein the first solid object is in a form of a three-dimensionally shaped pattern in which a plurality of layer regions are stacked and at least one pair of adjacent ones of the layer regions differ from each other in at least one feature quantity, wherein the feature quantity is a value representing visually or mechanically distinguishable features of the adjacent layer regions; a second generator (16C;17C) configured to generate third shaping data that includes second shaping data for shaping a second solid object serving as a shaping target and also includes the first shaping data, the third shaping data being used for shaping a third solid object in which the first solid object is arranged in the second solid object; and a shaping controller configured to control the shaping unit to shape the third solid object using the third shaping data.
A visual function improving agent that contains a nicotinamide mononucleotide as an active ingredient for use in an improvement of eye strain, of blurred vision, of presbyopia or of a VDT syndrome.
A mobile communication network component comprising: a determiner configured to determine, for a first network function service set of a first network function, a second network function service set of a second network function to provide a service to a first network function service instance within the first network function service set, wherein the determiner is configured to determine the second network function service set based on a mapping of the first network function service set to the second network function service set; and a transmitter configured to transmit a service request to the determined second network function service set. a determiner configured to determine, for a first network function service set of a first network function, a second network function service set of a second network function to provide a service to a first network function service instance within the first network function service set, wherein the determiner is configured to determine the second network function service set based on a mapping of the first network function service set to the second network function service set; and a transmitter configured to transmit a service request to the determined second network function service set.