mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical instrument to be attached to a robot arm , comprising: an end effector ; an end effector support body that supports the end effector to be rotatable about a first axis (A1); a support body that supports the end effector support body to be rotatable about a second axis (A2); a shaft to which the support body is connected and through which elongate elements (W1, W2) for operating the end effector are inserted; a seal member provided in the support body; and a pressing member including a pressing surface in contact with and pressing a surface of the seal member on a side of the shaft, wherein the pressing member comprises a pressed portion provided outside an outer peripheral end of the pressing surface in a radial direction of the shaft, the pressed portion is projected outwardly in the radial direction of the shaft from the outer peripheral end of the pressing surface in the radial direction, the shaft includes a projection projected in an axial direction (Y) of the shaft, and the pressed portion is provided at a position opposed to the projection of the shaft in the axial direction of the shaft. an end effector ; an end effector support body that supports the end effector to be rotatable about a first axis (A1); a support body that supports the end effector support body to be rotatable about a second axis (A2); a shaft to which the support body is connected and through which elongate elements (W1, W2) for operating the end effector are inserted; a seal member provided in the support body; and a pressing member including a pressing surface in contact with and pressing a surface of the seal member on a side of the shaft, wherein the pressing member comprises a pressed portion provided outside an outer peripheral end of the pressing surface in a radial direction of the shaft, the pressed portion is projected outwardly in the radial direction of the shaft from the outer peripheral end of the pressing surface in the radial direction, the shaft includes a projection projected in an axial direction (Y) of the shaft, and the pressed portion is provided at a position opposed to the projection of the shaft in the axial direction of the shaft.
A method for joining members, comprising: preparing a first member and a hollow second member , the first member having a first section provided with a first hole ; fitting the second member into the first hole in the first member so as to cause the second member to extend through the first section ; inserting an elastic body (30; 130) into the second member ; and compressing the elastic body (30; 130) in a direction of an axis (L) of the second member so as to cause the elastic body (30; 130) to expand from an inner side toward an outer side, and thus causing at least a part of the second member fitted in the first hole to expand so as to become clinched to the first section ; characterized in that the second member includes an end surface inclined relative to the axis (L), and wherein opposite end surfaces of the elastic body (30; 130) in the direction of the axis (L) are parallel to an inclined surface of a strike plate , wherein the second member is placed on the inclined surface in a state where the inclined end surface is in contact therewith, and is clinched to the first member such that the first member and the second member are clinched together in an inclined state. preparing a first member and a hollow second member , the first member having a first section provided with a first hole ; fitting the second member into the first hole in the first member so as to cause the second member to extend through the first section ; inserting an elastic body (30; 130) into the second member ; and compressing the elastic body (30; 130) in a direction of an axis (L) of the second member so as to cause the elastic body (30; 130) to expand from an inner side toward an outer side, and thus causing at least a part of the second member fitted in the first hole to expand so as to become clinched to the first section ; characterized in that the second member includes an end surface inclined relative to the axis (L), and wherein opposite end surfaces of the elastic body (30; 130) in the direction of the axis (L) are parallel to an inclined surface of a strike plate , wherein the second member is placed on the inclined surface in a state where the inclined end surface is in contact therewith, and is clinched to the first member such that the first member and the second member are clinched together in an inclined state.
A container extraction assembly comprising: an extractor assembly that includes a pull member and an extractor member , wherein the extractor member is movable between a distal position and a proximal position, wherein the pull member is movable between a first position, a second position and a third position, wherein moving the pull member from the first position to the third position moves the extractor member from the distal position to the proximal position, a retainer assembly that includes a proximal leg member and a distal leg member that are hingedly connected to one another, wherein the retainer assembly is movable between a deployed position, a folded position and a finish position, wherein moving the pull member linearly from the first position to the second position moves the retainer assembly from the deployed position to the folded position, and wherein moving the pull member linearly from the second position to the third position moves the retainer assembly from the folded position to the finish position. an extractor assembly that includes a pull member and an extractor member , wherein the extractor member is movable between a distal position and a proximal position, wherein the pull member is movable between a first position, a second position and a third position, wherein moving the pull member from the first position to the third position moves the extractor member from the distal position to the proximal position, a retainer assembly that includes a proximal leg member and a distal leg member that are hingedly connected to one another, wherein the retainer assembly is movable between a deployed position, a folded position and a finish position, wherein moving the pull member linearly from the first position to the second position moves the retainer assembly from the deployed position to the folded position, and wherein moving the pull member linearly from the second position to the third position moves the retainer assembly from the folded position to the finish position.
A use of an expandable, exothermic gel-forming composition for producing heat in the absence of air, the expandable, exothermic gel-forming composition comprising: first metallic galvanic alloy particles and second metallic galvanic alloy particles; a metallic secondary shell comprised of at least one transitional metal; and a super absorbent polymer; wherein the first and second metallic galvanic alloy particles, the metallic secondary shell, and the super absorbent polymer are blended with each other; wherein the gel-forming composition expands as the gel-forming composition is hydrated and generates an exothermic reaction that produces heat for a predetermined duration of time when exposed to water and an electrolyte in the absence of air; wherein the metallic secondary shell suppresses hydrogen gas byproducts generated by the exothermic reaction within the gel-forming composition; wherein the transitional metal of the secondary shell is Manganese Dioxide. first metallic galvanic alloy particles and second metallic galvanic alloy particles; a metallic secondary shell comprised of at least one transitional metal; and a super absorbent polymer; wherein the first and second metallic galvanic alloy particles, the metallic secondary shell, and the super absorbent polymer are blended with each other; wherein the gel-forming composition expands as the gel-forming composition is hydrated and generates an exothermic reaction that produces heat for a predetermined duration of time when exposed to water and an electrolyte in the absence of air; wherein the metallic secondary shell suppresses hydrogen gas byproducts generated by the exothermic reaction within the gel-forming composition; wherein the transitional metal of the secondary shell is Manganese Dioxide.
A welding torch , in particular a TIG welding torch, comprising a torch body and at least one device for feeding a consumable welding wire towards the tool center point (TCP), wherein at least one feed device has an attachment means for attachment to the welding torch or an element connected thereto, comprising a base support , which is connected to the attachment means and comprises at least two deflection elements for guiding the welding wire towards the tool center point (TCP), characterized in that the at least two deflection elements are arranged on the base support in such a way that a first path length (l 1 ) of the welding wire from the last deflection element located closest to the tool center point (TCP) to the tool center point (TCP) is shorter than a second path length (l 2 ) of the welding wire between the last deflection element and a further deflection element as viewed counter to a main feed direction (F) of the welding wire , and that the at least two deflection elements are further arranged on the base support in such a way that the welding wire , which runs arcuately, has a greater segment height (h 2 ) along the second path length (l 2 ) than the segment height (h 2 ) along the first path length (l 1 ).
Radiating cable (10; 10a; 10b; 10c; 10d; 10e; 10g; 10h) for radiating electromagnetic energy, comprising an outer conductor surrounding a longitudinal axis of the cable , wherein the outer conductor has a plurality of apertures , wherein at least one aperture comprises a first basically slot-shaped leg and a second basically slot-shaped leg , wherein a longitudinal axis of said first leg is parallel to the longitudinal axis of said cable , and wherein a first angle (alpha) between a longitudinal axis of said second leg and said longitudinal axis of said cable comprises a value larger than 0 degrees and smaller than 180 degrees, wherein at least one of said legs comprises a substantially trapezoidal shape, and wherein said first leg and/or said second leg comprises in a respective axial end section a tip section with a width changing along the longitudinal axis of said cable , wherein said tip section preferably comprises a basically triangular shape.
Ventilation strip for the ridge or hip of a roof, the ventilation strip consisting of a carrier material of materials known per se and edging strips fixed in each case on both sides, characterised in that the edging strips are made of two pleated metal strips lying one above the other, wherein the two metal strips are firmly connected to the carrier material by a seam with sewing thread , and the respective upper pleated metal strip is provided with a perforation and is shorter in width than the respective lower pleated metal strip and can be raised to an angle of 90 degrees and above.
A multi-stage seatback extension system , comprising: a backrest base assembly ; an extendable backrest assembly moveably coupled to the backrest base assembly ; and an extendable headrest assembly coupled to the extendable backrest assembly , characterized in that the extendable headrest assembly comprises: a stationary member coupled to the extendable backrest assembly ; a movable cross member ; at least two lower links rotationally coupled to respective lower pivot joints of the stationary member ; and at least two upper links rotationally coupled to respective upper pivot joints of the moveable cross member , wherein respective ones of the at least two lower links are coupled to respective ones of the at least two upper links by respective link pivot joints . a backrest base assembly ; an extendable backrest assembly moveably coupled to the backrest base assembly ; and an extendable headrest assembly coupled to the extendable backrest assembly , characterized in that the extendable headrest assembly comprises: a stationary member coupled to the extendable backrest assembly ; a movable cross member ; at least two lower links rotationally coupled to respective lower pivot joints of the stationary member ; and at least two upper links rotationally coupled to respective upper pivot joints of the moveable cross member , wherein respective ones of the at least two lower links are coupled to respective ones of the at least two upper links by respective link pivot joints . a stationary member coupled to the extendable backrest assembly ; a movable cross member ; at least two lower links rotationally coupled to respective lower pivot joints of the stationary member ; and at least two upper links rotationally coupled to respective upper pivot joints of the moveable cross member , wherein respective ones of the at least two lower links are coupled to respective ones of the at least two upper links by respective link pivot joints .
A computer-implemented method implemented by a device detection appliance having at least one processor to perform the steps of: in response to receiving a set of data from a client device connected to the device detection appliance by a local network, selecting a candidate category from a plurality of pre-determined device categories, the candidate category being defined by a tuple of device features, the tuple including a selected hardware device type co-occurring with a selected operating system; determining a first score according to a first subset of the set of data, the first score indicative of a first degree to which the client device is representative of the candidate category; determining a second score according to a second subset of the set of data, the second score indicative of a second degree to which the client device is representative of the candidate category; combining the first and second scores to produce an aggregate score; and in response to producing the aggregate score, determining whether the client device belongs to the candidate category according to the aggregate score. in response to receiving a set of data from a client device connected to the device detection appliance by a local network, selecting a candidate category from a plurality of pre-determined device categories, the candidate category being defined by a tuple of device features, the tuple including a selected hardware device type co-occurring with a selected operating system; determining a first score according to a first subset of the set of data, the first score indicative of a first degree to which the client device is representative of the candidate category; determining a second score according to a second subset of the set of data, the second score indicative of a second degree to which the client device is representative of the candidate category; combining the first and second scores to produce an aggregate score; and in response to producing the aggregate score, determining whether the client device belongs to the candidate category according to the aggregate score.
A radiator device for an IR emitter micro-hotplate, the radiator device comprising an IR emitter element and a plurality of support arms connected to the emitter element , wherein: the emitter element is suspended by the arms ; and the emitter element is heatable to a predetermined IR emission temperature; characterized in that the arms and the emitter element are configured such that, when a current is passed through the arms to the emitter element , the emitter element is heatable by heat generated in the arms by resistive heating and transferred into the emitter element by thermal conduction . the emitter element is suspended by the arms ; and the emitter element is heatable to a predetermined IR emission temperature; characterized in that the arms and the emitter element are configured such that, when a current is passed through the arms to the emitter element , the emitter element is heatable by heat generated in the arms by resistive heating and transferred into the emitter element by thermal conduction .
A solid electrolyte material comprising Li, Sm, O, and X, wherein X is at least one element selected from the group consisting of Cl, Br, and I, the solid electrolyte material is denoted by Composition formula below, Li 2+b-3a (Sm 1-x M x ) a OX b wherein M is at least one element selected from the group consisting of Y, La, and Gd, and mathematical formulae below 1.0 ≤ a ≤ 2.17 1.5 ≤ b ≤ 6.0 , and 0 ≤ x ≤ 0.5 are satisfied. Li, Sm, O, and X, wherein X is at least one element selected from the group consisting of Cl, Br, and I, the solid electrolyte material is denoted by Composition formula below, Li 2+b-3a (Sm 1-x M x ) a OX b wherein M is at least one element selected from the group consisting of Y, La, and Gd, and mathematical formulae below 1.0 ≤ a ≤ 2.17 1.5 ≤ b ≤ 6.0 , and 0 ≤ x ≤ 0.5 X is at least one element selected from the group consisting of Cl, Br, and I, the solid electrolyte material is denoted by Composition formula below, Li 2+b-3a (Sm 1-x M x ) a OX b wherein M is at least one element selected from the group consisting of Y, La, and Gd, and mathematical formulae below 1.0 ≤ a ≤ 2.17 1.5 ≤ b ≤ 6.0 , and 0 ≤ x ≤ 0.5
A method for curing an adhesive between electrode layers of an electrode stack comprises the steps of: - Providing an electrode stack (ES) with several electrode layers, between which at least one adhesive (KS) is arranged at least in certain areas; - Picking up the electrode stack (ES) with a transport device ; - Conveying of the picked-up electrode stack (ES) by the transport device along a conveying path to a curing station ; - Providing a ram which can be tempered in zones and which is set up to press an electrode stack (ES) picked up by the transport device against the transport device ; - Conveying the stack of electrodes (ES) picked up by the transport device through the curing station , and curing the adhesive between the multiple electrode layers in the curing station ; - Removing the ram from the electrode stack (ES); - Removing the electrode stack (ES) from the transport device . - Providing an electrode stack (ES) with several electrode layers, between which at least one adhesive (KS) is arranged at least in certain areas; - Picking up the electrode stack (ES) with a transport device ; - Conveying of the picked-up electrode stack (ES) by the transport device along a conveying path to a curing station ; - Providing a ram which can be tempered in zones and which is set up to press an electrode stack (ES) picked up by the transport device against the transport device ; - Conveying the stack of electrodes (ES) picked up by the transport device through the curing station , and curing the adhesive between the multiple electrode layers in the curing station ; - Removing the ram from the electrode stack (ES); - Removing the electrode stack (ES) from the transport device .
A composition comprising: an activated pre-polymer comprising a polymeric unit of the general formula (-A-B-)n, wherein A represents a substituted or un-substituted ester, B represents a substituted or un-substituted acid ester comprising at least two acid ester functionalities; and n represents an integer greater than 1; wherein the activated pre-polymer is an acrylated pre-polymer or a vinylated pre-polymer, and wherein the composition comprises an anhydride compound. an activated pre-polymer comprising a polymeric unit of the general formula (-A-B-)n, wherein A represents a substituted or un-substituted ester, B represents a substituted or un-substituted acid ester comprising at least two acid ester functionalities; and n represents an integer greater than 1; wherein the activated pre-polymer is an acrylated pre-polymer or a vinylated pre-polymer, and wherein the composition comprises an anhydride compound.
A compound for use in the treatment of cancer, wherein the compound is selected from the group consisting of • N-(4-ethylphenyl)-5-(2-hydroxy-5-methoxybenzoyl)-2-imino-2H-pyran-3-carboxamide (Molecular Formula: C 22 H 21 N 2 O 5 + ) [Compound 1; Z44426883]; • N-(3-{[carbamoyl(phenyl)methyl]amino}phenyl)-2-methoxypropanamide (Molecular Formula: C 18 H 21 N 3 O 3 ) [Compound 5; Z854502162]; • 1-(4-butanamidophenyl)-1-oxopropan-2-yl-1H-indazole-3-carboxylate (Molecular Formula: C 18 H 21 N 3 O 3 ) [Compound 6; Z51102986]; and pharmaceutically acceptable enantiomers, diastereomers, tautomers, salts, solvates, and/or hydrates thereof. • N-(4-ethylphenyl)-5-(2-hydroxy-5-methoxybenzoyl)-2-imino-2H-pyran-3-carboxamide (Molecular Formula: C 22 H 21 N 2 O 5 + ) [Compound 1; Z44426883]; • N-(3-{[carbamoyl(phenyl)methyl]amino}phenyl)-2-methoxypropanamide (Molecular Formula: C 18 H 21 N 3 O 3 ) [Compound 5; Z854502162]; • 1-(4-butanamidophenyl)-1-oxopropan-2-yl-1H-indazole-3-carboxylate (Molecular Formula: C 18 H 21 N 3 O 3 ) [Compound 6; Z51102986];
A method for controlling a power converter in a wind turbine system, the wind turbine system comprising a generator and a power converter , the power converter comprising a plurality of switching devices and a current damping module , the method comprising: determining, by one or more processors , a flux magnitude (F, 532) of an air-gap between a rotor and a stator in the generator ; determining, by an adaptive orientation angle adjustment logic , an orientation adjustment reference signal ( δ , 524) for the current damping module based on the flux magnitude (F, 532) according to the equation: δ = min C 1 , max C 2 , C 1 + F − C 3 * C 2 − C 1 / C 4 − C 3 , where C 1 , C 2 , C 3 , and C 4 are constants; and controlling, by the one or more processors , the power converter based at least in part on the orientation adjustment reference signal ( δ , 524). determining, by one or more processors , a flux magnitude (F, 532) of an air-gap between a rotor and a stator in the generator ; determining, by an adaptive orientation angle adjustment logic , an orientation adjustment reference signal ( δ , 524) for the current damping module based on the flux magnitude (F, 532) according to the equation: δ = min C 1 , max C 2 , C 1 + F − C 3 * C 2 − C 1 / C 4 − C 3 , where C 1 , C 2 , C 3 , and C 4 are constants; and controlling, by the one or more processors , the power converter based at least in part on the orientation adjustment reference signal ( δ , 524).