mhurhangee/ep-ind-claims huggingface dataset:
A system for loading a surgical buttress with a radioactive material, comprising: a surgical buttress (1200, 1300) including a body portion (1220, 1320), wherein the body portion includes a central portion (1222, 1322) and wings (1224, 1324) extending laterally from opposed sides of the central portion; characterized by a radioactive material delivery instrument including an elongate body extending from a handle assembly, the elongate body defining a lumen therethrough and having an open distal end, the lumen of the elongate body configured to have radioactive material disposed therein; wherein the body portion defines a first width when in a pre-loaded configuration and a second width when in a loaded configuration; wherein in the loaded configuration, each of the wings is folded to form a pouch (1227, 1327) for retaining radioactive material therein; wherein the surgical buttress is configured to be positioned on a surgical loading unit in the loaded configuration such that the central portion of the surgical buttress overlies a cartridge assembly or an anvil assembly of the surgical loading unit and the wings extend laterally beyond sides of the cartridge assembly or the anvil assembly. a surgical buttress (1200, 1300) including a body portion (1220, 1320), wherein the body portion includes a central portion (1222, 1322) and wings (1224, 1324) extending laterally from opposed sides of the central portion; characterized by a radioactive material delivery instrument including an elongate body extending from a handle assembly, the elongate body defining a lumen therethrough and having an open distal end, the lumen of the elongate body configured to have radioactive material disposed therein; wherein the body portion defines a first width when in a pre-loaded configuration and a second width when in a loaded configuration; wherein in the loaded configuration, each of the wings is folded to form a pouch (1227, 1327) for retaining radioactive material therein; wherein the surgical buttress is configured to be positioned on a surgical loading unit in the loaded configuration such that the central portion of the surgical buttress overlies a cartridge assembly or an anvil assembly of the surgical loading unit and the wings extend laterally beyond sides of the cartridge assembly or the anvil assembly.
An acylphosphine oxide compound having a structure in which one or more carbonyl groups that link to a carbon atom are further directly bonded to an aromatic ring of an aromatic acyl group that bonds to a phosphorus atom in an acylphosphine oxide structure, wherein the carbon atom that links to the carbonyl group is an aliphatic carbon atom, wherein the acylphosphine oxide compound has a partial structure represented by Formula 1-0 or Formula 2-00, wherein, in Formula 1-0, R 1 's each independently represent a monovalent hydrocarbon group in which a part of a hydrocarbon chain may be substituted with a carbonyl group, an ester bond, an amide bond, an oxygen atom, NR, and/or a sulfur atom, a linking group that links to a main chain of an oligomer or a polymer, or a linking group that links to R 1 of another acylphosphine oxide compound represented by Formula 1-0 to form an oligomer or a polymer, and R 1 is a group that links at an aliphatic carbon atom to the carbonyl group in Formula 1-0, R represents a hydrogen atom, an alkyl group, or an aryl group, R 2 represents an alkyl group, an aryl group, or an alkoxy group, R 3 and R 4 each independently represent an alkyl group or an aryl group, m1 represents an integer of 0 to 4, and n represents an integer of 1 to 3, and wherein, in Formula 2-00, C al represents an aliphatic carbon atom, R 0 's each independently represent an alkyl group, an aryl group, or an alkoxy group, m1 represents an integer of 0 to 4, m2 represents an integer of 0 to 5, n represents an integer of 1 to 3, p represents an integer of 0 to 3, and a wavy line portion represents a bonding position to other structures.
An asparaginase variant comprising a substitution at a position corresponding to position 241 of SEQ ID NO: 2, wherein the variant has at least 80% sequence identity to the mature polypeptide of any of SEQ ID NOs: 2 or 4, wherein the variant has asparaginase activity, and wherein the variant has an improved thermostability relative to the asparaginase encoded by SEQ ID NO: 2.
A thermal barrier modified composite coating, comprising: a first coating layer bonded to a surface of a gas turbine blade having a roughness Ra of less than 3.18 μm (125 μin), said first coating layer comprising macro columnar features characterized by a predetermined distribution of peaks and valleys at their corresponding free surfaces to create improved mechanical bonding between the first layer and a second layer, said second layer being a dense columnar coating or a Densely Vertically Cracked coating being less columnar than the first coating layer; said macro columnar features comprising microstructural features that include nano-sized and/or submicron-sized splats derived from a precursor liquid suspension to form a thermomechanical compliant interface at the substrate surface, said splats being randomly oriented to produce an isotropic crystallographic orientation for the first coating, said precursor liquid suspension formed by a suspension plasma spray method; said splats comprising non-equiaxed columnar grains that grow opposite to a direction of heat flow upon cooling to produce an anisotropic crystallographic grain orientation; and wherein said second coating layer is bonded to the corresponding free surfaces of the first coating layer, said second coating layer at the bulk and/or free surface having at least one improved coating property in comparison to the first coating layer, said improved coating property comprising a lower porosity than that of the first coating layer and an improved mechanical erosion barrier in comparison to the first coating layer. a first coating layer bonded to a surface of a gas turbine blade having a roughness Ra of less than 3.18 μm (125 μin), said first coating layer comprising macro columnar features characterized by a predetermined distribution of peaks and valleys at their corresponding free surfaces to create improved mechanical bonding between the first layer and a second layer, said second layer being a dense columnar coating or a Densely Vertically Cracked coating being less columnar than the first coating layer; said macro columnar features comprising microstructural features that include nano-sized and/or submicron-sized splats derived from a precursor liquid suspension to form a thermomechanical compliant interface at the substrate surface, said splats being randomly oriented to produce an isotropic crystallographic orientation for the first coating, said precursor liquid suspension formed by a suspension plasma spray method; said splats comprising non-equiaxed columnar grains that grow opposite to a direction of heat flow upon cooling to produce an anisotropic crystallographic grain orientation; and wherein said second coating layer is bonded to the corresponding free surfaces of the first coating layer, said second coating layer at the bulk and/or free surface having at least one improved coating property in comparison to the first coating layer, said improved coating property comprising a lower porosity than that of the first coating layer and an improved mechanical erosion barrier in comparison to the first coating layer.
Method for assembling two metal sheet elements (1, 1'), comprising depositing a bead of glue on a first element, assembling the second metal sheet element on the first element and fixing by making weld points to hold the two metal sheet elements immobile before proceeding to the hardening of the glue, characterized in that the bead of glue is deposited discontinuously along a glue line on the first metal sheet element, and then, once the second metal sheet element is applied against the first, the two elements (1, 1') are kept fixed one with respect to the other by producing weld points at sections without glue of the discontinuous sizing line.
An apparatus for disrupting debris in a tissue site, the apparatus comprising: a contact layer formed from a felted foam and having a plurality of through-holes separated from each other by walls; and characterized in that the apparatus comprises a retainer layer configured to be positioned adjacent to and covering the contact layer, wherein the contact layer has a first thickness at ambient pressure, wherein the contact layer is configured to compress to a second thickness in response to a negative pressure, wherein the second thickness is less than the first thickness, wherein the through-holes are configured to form nodules in the tissue site in response to negative pressure, wherein the nodules have a height no greater than the second thickness. a contact layer formed from a felted foam and having a plurality of through-holes separated from each other by walls; and characterized in that the apparatus comprises a retainer layer configured to be positioned adjacent to and covering the contact layer, wherein the contact layer has a first thickness at ambient pressure, wherein the contact layer is configured to compress to a second thickness in response to a negative pressure, wherein the second thickness is less than the first thickness, wherein the through-holes are configured to form nodules in the tissue site in response to negative pressure, wherein the nodules have a height no greater than the second thickness.
Supply system for supplying bulk material and/or ready-mix concrete in a track bed portion, comprising: - an intermodal mixing container unit, in particular a ready-mix concrete mixer, having a coupling frame, - a first rail vehicle, in particular a track construction trailer, and - a second rail vehicle, in particular a railroad excavator, the coupling frame having connection interfaces (19; 19') and being designed to be releasably coupled to a hook-liftable transshipment frame so that the mixing-container unit can be transported and transshipped by means of a hook-lift road vehicle, the first rail vehicle having corresponding receiving elements (20; 20') and it being possible for the connection interfaces (19; 19') of the coupling frame to be releasably coupled to the receiving elements (20; 20') and the second rail vehicle being optionally operable as a transshipment device, a switcher locomotive and/or a hydraulic drive unit, characterized in that the coupling frame comprises two coupling tracks which, in a position coupled to the transshipment frame, rest on transshipment tracks of the transshipment frame. - an intermodal mixing container unit, in particular a ready-mix concrete mixer, having a coupling frame, - a first rail vehicle, in particular a track construction trailer, and - a second rail vehicle, in particular a railroad excavator, the coupling frame having connection interfaces (19; 19') and being designed to be releasably coupled to a hook-liftable transshipment frame so that the mixing-container unit can be transported and transshipped by means of a hook-lift road vehicle, the first rail vehicle having corresponding receiving elements (20; 20') and it being possible for the connection interfaces (19; 19') of the coupling frame to be releasably coupled to the receiving elements (20; 20') and the second rail vehicle being optionally operable as a transshipment device, a switcher locomotive and/or a hydraulic drive unit, characterized in that the coupling frame comprises two coupling tracks which, in a position coupled to the transshipment frame, rest on transshipment tracks of the transshipment frame.
An anvil roll comprising an anvil surface and an anvil roll axis wherein the anvil surface includes a plurality of grooves having a variable cross-machine direction groove width, wherein the plurality of grooves are angled relative to the anvil roll axis and characterised in that the grooves have a groove angle relative to the anvil roll axis of about 25 degrees to 45 degrees.
A micro-truss structure, comprising: a plurality of unit cells arranged in a staggered array, wherein: each of the plurality of unit cells comprises a plurality of struts interconnected at a node, adjacent ones of at least two of the plurality of unit cells are spaced apart by a gap, the plurality of unit cells comprises a first plurality of unit cells arranged in a first row of the array and a second plurality of unit cells arranged in a second row of the array, the second plurality of unit cells in the second row of the array is laterally offset from the first plurality of unit cells in the first row of the array, at least one of the struts in each of the first plurality of unit cells in the first row is interconnected to one of the struts in one of the second plurality of unit cells in the second row, and the micro-truss structure has a sparsity of about 3. each of the plurality of unit cells comprises a plurality of struts interconnected at a node, adjacent ones of at least two of the plurality of unit cells are spaced apart by a gap, the plurality of unit cells comprises a first plurality of unit cells arranged in a first row of the array and a second plurality of unit cells arranged in a second row of the array, the second plurality of unit cells in the second row of the array is laterally offset from the first plurality of unit cells in the first row of the array, at least one of the struts in each of the first plurality of unit cells in the first row is interconnected to one of the struts in one of the second plurality of unit cells in the second row, and the micro-truss structure has a sparsity of about 3.
Pump comprising a body enclosing within a cover: - An impeller rotating with a shaft driven by an electric motor and surrounded by a casing with an inlet orifice and an outlet tube between which lies the impeller, - A motor control device with a frequency converter, - An accelerometer type vibration sensor, mounted on a non-rotating part of the pump that produces vibration forms, - A computing device connected by cable firstly to the vibration sensor and secondly to the frequency converter, in such a manner as to analyse the vibration forms and send a control signal for the motor to the frequency converter that is a function of the vibration form received from the vibration sensor, the computing device has a memory characterised in that the cover is removable and the computing device has a communication terminal enabling it, when the cover is removed, to communicate with an external information device used to initialise the memory by sending messages from the external device to the computing device, communication from the communication terminal with the external device being interrupted when the cover is replaced while the pump is running. - An impeller rotating with a shaft driven by an electric motor and surrounded by a casing with an inlet orifice and an outlet tube between which lies the impeller, - A motor control device with a frequency converter, - An accelerometer type vibration sensor, mounted on a non-rotating part of the pump that produces vibration forms, - A computing device connected by cable firstly to the vibration sensor and secondly to the frequency converter, in such a manner as to analyse the vibration forms and send a control signal for the motor to the frequency converter that is a function of the vibration form received from the vibration sensor, the computing device has a memory characterised in that the cover is removable and the computing device has a communication terminal enabling it, when the cover is removed, to communicate with an external information device used to initialise the memory by sending messages from the external device to the computing device, communication from the communication terminal with the external device being interrupted when the cover is replaced while the pump is running.
A heater comprising a heating member extending in a longitudinal direction, a transverse direction and a vertical direction which is perpendicular to both the longitudinal and transverse directions, the heating member comprising: a plurality of insulator substrates (361h, 361in 361j) disposed in a stacked state in the vertical direction, each of the plurality of insulator substrates having a top surface and a longitudinal side surface, a heat generating section in which a plurality of divided regions comprising heat generating bodies (361a, 361b, 361c) are formed in the longitudinal direction on the top surface of an insulator substrate which is on the top of the plurality of insulator substrates; electrodes (361d, 361e, 361f, 361g) formed at both end portions of the heat generating section to correspond to the plurality of divided regions; and at least two electric conductors (361q, 361r) connected to at least one of the electrodes and respectively formed over the longitudinal side surface of the insulator substrate which is on the top of the plurality of the insulator substrates. a plurality of insulator substrates (361h, 361in 361j) disposed in a stacked state in the vertical direction, each of the plurality of insulator substrates having a top surface and a longitudinal side surface, a heat generating section in which a plurality of divided regions comprising heat generating bodies (361a, 361b, 361c) are formed in the longitudinal direction on the top surface of an insulator substrate which is on the top of the plurality of insulator substrates; electrodes (361d, 361e, 361f, 361g) formed at both end portions of the heat generating section to correspond to the plurality of divided regions; and at least two electric conductors (361q, 361r) connected to at least one of the electrodes and respectively formed over the longitudinal side surface of the insulator substrate which is on the top of the plurality of the insulator substrates.
5-Aminolevulinic acids represented by formula: R 2 R 1 NCH 2 COCH 2 CH 2 COR 3 [wherein R 1 and R 2 each independently represent a hydrogen atom, an alkyl group, an acyl group, an alkoxycarbonyl group, an aryl group, or an aralkyl group; and R 3 represents a hydroxy group, an alkoxy group, an acyloxy group, an alkoxycarbonyloxy group, an aryloxy group, an aralkyloxy group, or an amino group] or a salt thereof for use as an enhancer for cancer thermotherapy not combined with photodynamic therapy in a subject.
Connection device for attachment of a flexible surface element, in particular of a printed textile or a printed canvas, comprising a frame profile, which is attachable to a wall or another support structure and has at least one receiving groove, in which the flexible surface element is attachable to the frame profile, wherein the connection device - has a keder, which is formed in such a manner that it can be inserted in the first receiving groove with the interposition of an outer edge portion of the flexible surface element, - a securing strip, which is formed in a manner that it can be placed on the keder, characterised by - at least one locking screw (8a, 8b), which is adapted to jointly secure the keder with the edge portion of the flexible surface element driven into it after insertion into the first receiving groove as well as the securing strip after placement on the keder, wherein the frame profile has a second receiving groove, which is immediately adjacent to the first receiving groove or is spaced apart from it, and the securing strip has an engaging portion, which is formed in such a manner that it can be form-fittingly inserted into the second receiving groove. - has a keder, which is formed in such a manner that it can be inserted in the first receiving groove with the interposition of an outer edge portion of the flexible surface element, - a securing strip, which is formed in a manner that it can be placed on the keder, - at least one locking screw (8a, 8b), which is adapted to jointly secure the keder with the edge portion of the flexible surface element driven into it after insertion into the first receiving groove as well as the securing strip after placement on the keder, wherein the frame profile has a second receiving groove, which is immediately adjacent to the first receiving groove or is spaced apart from it, and the securing strip has an engaging portion, which is formed in such a manner that it can be form-fittingly inserted into the second receiving groove.
Counting device comprising an assembly for converting mechanical work into electrical energy, which assembly comprising a bending transducer with a support in the form of a strip and with at least one piezoelectric layer attached thereto, wherein the support in the form of a strip is mounted at both ends and wherein an actuating mechanism (8, 30) is provided in such a way that, when the actuating mechanism (8, 30) is actuated, a mechanical force is exerted on the support in the longitudinal direction of the support and leads to arcuate bending of the bending transducer, and thereby to the generation of electrical energy, which counting device comprising an electronic indicator and an electronic assembly, for sensing actuations of the actuating mechanism (8, 30) and for controlling the electronic indicator, which assembly supplies electrical energy for the electronic assembly and the electronic indicator..
Hydraulically operated working equipment with a hydraulic cylinder, a hydraulic piston movable in the hydraulic cylinder, a drive working equipment part which has a motor and a pump, and a hydraulic line leading to the hydraulic cylinder, characterised in that in that the hydraulic cylinder is electrically insulated with respect to the drive working equipment part, for which purpose an electrically insulating separating layer is provided which passes transversely through the working equipment for electrical separation from the working equipment part in the region of an end of the hydraulic cylinder facing the drive working equipment part, the hydraulic line being guided through the separating layer, with a partial region of the hydraulic line also being formed from an electrically insulating material and/or in that an electrically insulating piston head is provided with respect to the hydraulic piston and/or the hydraulic piston can be moved in the direction of the driving working equipment part only to such an extent that a maximum distance (a) between a point on the piston head and an electrically conductive region of the driving working equipment part exceeds a distance necessary for electrical insulation.
A touch sensor, comprising a structure in which one base material comprises four parts (11A, 11B, 11C, 11D), a resistance membrane (12A, 12B) for position detection is formed on each of a first part and a second part which are two adjacent parts of the four parts (11A, 11B, 11C, 11D) whereby each resistance membrane has a rectangular shape, a resistance membrane (13A, 13B) being pressure sensitive is formed on each of a third part and a fourth part which are the other two adjacent parts of the four parts (11A, 11B, 11C, 11D) whereby each resistance membrane being pressure sensitive likewise has a rectangular shape, the second part is laminated by being folded with respect to the first part to form a configuration capable of detecting a position based on ratio of resistances determined by the position of touch, and the third part is laminated by being folded with respect to the fourth part to form a configuration capable of detecting a pressure and the two parts formed by folding are interfolded to form a configuration capable of detecting a position and a pressure.