mhurhangee/ep-ind-claims huggingface dataset:
Electrical device, comprising a first housing assembly, a second housing assembly which has a housing wall, and a locking device, wherein the first housing assembly and the second housing assembly can be attached to each other along a plug-in direction and are locked to each other via the locking device in a position in which they are attached to each other, wherein the locking device has an actuating element which is arranged adjustably along an actuating direction on the second housing assembly and a locking element which is operatively connected to the actuating element and adjustably connected to the housing wall, wherein the locking element is designed to lock the first housing assembly and the second housing assembly to each other in the position in which the housing assemblies (10, 14) are attached to each other, and can be adjusted in relation to the housing wall in an unlocking direction directed transversely to the actuating direction in order to release the locking mechanism by adjusting the actuating element in the actuating direction in relation to the housing wall, wherein the locking element is formed in one piece with the housing wall and as a tab on the housing wall, characterized in that the actuating element has two active portions (123, 124), which are displaceably guided on side edges (130, 131) of the locking element that extend parallel to each other.
Computer-implemented method for generating map data of a digital map from raw data of the digital map, - wherein the raw data comprise a map object and one value each of at least one attribute, which value is associated with the map object, - wherein the map data comprise the map object and a value of a derived attribute, which value is associated with the map object, - wherein the map data are generated by applying a global set of rules, wherein the global set of rules comprises at least one association rule, wherein the association rule assigns precisely one value of the derived attribute to at least one value of at least one attribute of the raw data, characterized in that - the map data are generated by further applying an object-specific correction data record, wherein the object-specific correction data record comprises, for a map object, precisely one value of the derived attribute, - wherein the value of the derived attribute that is contained in the correction data record is assigned to the map object of the map data. - wherein the raw data comprise a map object and one value each of at least one attribute, which value is associated with the map object, - wherein the map data comprise the map object and a value of a derived attribute, which value is associated with the map object, - wherein the map data are generated by applying a global set of rules, wherein the global set of rules comprises at least one association rule, wherein the association rule assigns precisely one value of the derived attribute to at least one value of at least one attribute of the raw data, characterized in that - the map data are generated by further applying an object-specific correction data record, wherein the object-specific correction data record comprises, for a map object, precisely one value of the derived attribute, - wherein the value of the derived attribute that is contained in the correction data record is assigned to the map object of the map data.
A hard tool configuration for the manufacturing of advanced features in a ceramic core for a casting process, comprising: a first platform comprising a center facing side; a second platform comprising a center facing side, wherein the second platform is generally opposite from the first platform; an internal mold geometry in a spacing in between the center facing side of the first platform and the center facing side of the second platform; characterized in that a plurality of removable rake elements comprising a first end and a second end, wherein the first end is removably attached to the center facing side of the first platform and/or the second platform, wherein the removable rake elements have a pin as connection point at a first end with a matching engagement portion along the center facing side of the corresponding platform (10, 12) the first end is removably attached to, wherein the pin has a circular end portion comprising an enlarged diameter, wherein the shape and size of the second end of each of the removable rake elements determines the details of the features of the ceramic core. a first platform comprising a center facing side; a second platform comprising a center facing side, wherein the second platform is generally opposite from the first platform; an internal mold geometry in a spacing in between the center facing side of the first platform and the center facing side of the second platform;
A qubit apparatus (100, 200) comprising: a resistive load; a qubit (102, 210); a tunable compound Josephson junction coupler (106, 220) coupling the qubit to the resistive load, the tunable compound Josephson junction coupler comprising a superconducting loop interrupted by a compound Josephson junction, the compound Josephson junction being implemented as an inline direct current superconducting quantum interference device, DC SQUID, which acts as a tunable mutual inductance, to form a radio frequency superconducting quantum interference device, RF SQUID, the tunable compound Josephson junction coupler further comprising a first inductor that provides a mutual inductance to the qubit via a first inductor galvanic connection, and a second inductor that provides a mutual inductance to a transmission line leading to the resistive load via a second inductor galvanic connection; and a coupling controller that applies flux to either the superconducting loop of the RF SQUID or to the compound Josephson junction to tune a magnetic susceptibility of the coupler to control the coupling strength of the tunable compound Josephson junction coupler such that a coupling between the qubit and the resistive load is a first value, at which the qubit is coupled to the resistive load, when a reset of the qubit is desired and a second value, at which the qubit is substantially isolated from the resistive load, during operation of the qubit. a resistive load; a qubit (102, 210); a tunable compound Josephson junction coupler (106, 220) coupling the qubit to the resistive load, the tunable compound Josephson junction coupler comprising a superconducting loop interrupted by a compound Josephson junction, the compound Josephson junction being implemented as an inline direct current superconducting quantum interference device, DC SQUID, which acts as a tunable mutual inductance, to form a radio frequency superconducting quantum interference device, RF SQUID, the tunable compound Josephson junction coupler further comprising a first inductor that provides a mutual inductance to the qubit via a first inductor galvanic connection, and a second inductor that provides a mutual inductance to a transmission line leading to the resistive load via a second inductor galvanic connection; and a coupling controller that applies flux to either the superconducting loop of the RF SQUID or to the compound Josephson junction to tune a magnetic susceptibility of the coupler to control the coupling strength of the tunable compound Josephson junction coupler such that a coupling between the qubit and the resistive load is a first value, at which the qubit is coupled to the resistive load, when a reset of the qubit is desired and a second value, at which the qubit is substantially isolated from the resistive load, during operation of the qubit.
An apparatus for treating vascular aneurysms, comprising at least one support member having at least a first surface; and a reactive material selectively applied to said support member, said reactive material having a non-reacted state and a reacted state, said apparatus defining a first end and a second end anchorable within a blood vessel and proximate to an opening of an aneurysm so as to locate at least a portion of said reactive material across the opening of said aneurysm; and said reacted state being capable of volumetric expansion, thereby restricting a blood flow to said aneurysm; wherein said reacted state is activated in the presence of a physiological pH for an extended period; and characterised in that said at least one support member comprises a radially and axially flexible body member, said body member having a first radius of curvature and a second radius of curvature, wherein the second radius of curvature is larger than the first radius of curvature.
An electromagnetic valve control device configured to control an angle of a swash plate of a hydrostatic, continuously variable transmission device with use of at least one electromagnetic valve (52A,52B), when the hydrostatic, continuously variable transmission device varies motive power from a drive section, and a gear transmission composites motive power from the drive section and the varied motive power from the hydrostatic, continuously variable transmission device, varies the composite motive power, and outputs the varied composite motive power, the electromagnetic valve control device being characterized in that the electromagnetic valve control device comprises: a control signal generator configured to, through feedback control involving an environmental coefficient, generate a control signal intended for the at least one electromagnetic valve and corresponding to a target electric current value; a coefficient determiner configured to determine the environmental coefficient during a learning period extending from a start of the drive section over a predetermined time length; and an operation limiter configured to limit respective operations of the at least one electromagnetic valve (52A,52B) and the gear transmission during the learning period. a control signal generator configured to, through feedback control involving an environmental coefficient, generate a control signal intended for the at least one electromagnetic valve and corresponding to a target electric current value; a coefficient determiner configured to determine the environmental coefficient during a learning period extending from a start of the drive section over a predetermined time length; and an operation limiter configured to limit respective operations of the at least one electromagnetic valve (52A,52B) and the gear transmission during the learning period.
A polyolefin resin foam sheet having a plurality of cells which is formed by foaming a polyolefin resin composition, wherein the polyolefin resin composition contains a polyolefin resin having relatively high density and a polyolefin resin having relatively low density, and the weighted average resin density of the polyolefin resin and the polyolefin resin is 0.900 g/cm 3 or less, wherein the polyolefin resin is one or more selected from the group consisting of polyolefin resins having a density of 0.900 g/cm 3 or more, and the polyolefin resin is one or more selected from the group consisting of polyolefin resins having a density of less than 0.900 g/cm 3; and wherein the polyolefin resin foam sheet has a Transverse Direction and a Machine Direction, and wherein, in the polyolefin resin foam sheet, a ratio of strength at break in the TD direction to the maximum cell size in the MD direction, [TD strength at break/MD maximum cell size], and a ratio of strength at break in the MD direction to the maximum cell size in the TD direction, [MD strength at break/TD maximum cell size], are both 45 kPa/μm or more, wherein maximum cell size and strength at break are measured according to the method in the description, wherein the 25% compressive strength of the polyolefin resin foam sheet is 100 to 2000 kPa as determined by JIS K67 67. wherein the polyolefin resin composition contains a polyolefin resin having relatively high density and a polyolefin resin having relatively low density, and the weighted average resin density of the polyolefin resin and the polyolefin resin is 0.900 g/cm 3 or less, wherein the polyolefin resin is one or more selected from the group consisting of polyolefin resins having a density of 0.900 g/cm 3 or more, and the polyolefin resin is one or more selected from the group consisting of polyolefin resins having a density of less than 0.900 g/cm 3; and wherein the polyolefin resin foam sheet has a Transverse Direction and a Machine Direction, and wherein, in the polyolefin resin foam sheet, a ratio of strength at break in the TD direction to the maximum cell size in the MD direction, [TD strength at break/MD maximum cell size], and a ratio of strength at break in the MD direction to the maximum cell size in the TD direction, [MD strength at break/TD maximum cell size], are both 45 kPa/μm or more, wherein maximum cell size and strength at break are measured according to the method in the description, wherein the 25% compressive strength of the polyolefin resin foam sheet is 100 to 2000 kPa as determined by JIS K67 67.
Inertial particle impactor for the deposition of small size particles having a mean diameter of less than 10 μm, comprising at least one impactor stage for receiving and passing a stream of ambient gas carrying said particles (aerosol), the impactor stage including a funnel shaped inlet and an outlet orifice at the narrow end of the funnel shaped inlet, an impactor plate, such as a TEM-grid, electron microscopy substrate, foil or disposable disc facing the outlet orifice on the side remote from the funnel shaped inlet and supported at a distance (s) to the outlet orifice by a plate or grid carrier, said plate or grid carrier having a support with a planar support surface for the plate or grid, the gas stream exiting from said outlet orifice, impacting on said plate or grid and passing along the surface substantially radially from said outlet orifice, thereby depositing particles upon said plate or grid, the stream of gas further flowing through outlet passages (7, 7') arranged at the periphery of said plate or grid support and optionally further passing the gas towards another nozzle inlet of a succeeding further impactor stage of the impactor, wherein the space above the plate or grid and surrounding the outlet orifice is limited by a top surface extending radially at least to the passages (7, 7'), characterized by a maximum axial distance (s 1) from the upper surface of the plate or grid to said top surface, which is less than three times and preferably less than twice the orifice diameter and in that at least one of said outlet orifices has a diameter between 0.1 and 0.4 mm, preferably about 0.25 mm, wherein the impactor plate is supported at a distance (s) to the outlet orifice of less than twice the orifice diameter, wherein the plate or grid support is provided as a shallow recess with a planar bottom supporting the plate or grid and arranged to provide a position for the plate or grid with the plate or grid center axis offset relative to the nozzle axis, which offset is between 0.1 and 1.2 times of the orifice diameter. characterized by a maximum axial distance (s 1) from the upper surface of the plate or grid to said top surface, which is less than three times and preferably less than twice the orifice diameter and in that at least one of said outlet orifices has a diameter between 0.1 and 0.4 mm, preferably about 0.25 mm, wherein the impactor plate is supported at a distance (s) to the outlet orifice of less than twice the orifice diameter, wherein the plate or grid support is provided as a shallow recess with a planar bottom supporting the plate or grid and arranged to provide a position for the plate or grid with the plate or grid center axis offset relative to the nozzle axis, which offset is between 0.1 and 1.2 times of the orifice diameter.
An isocyanate-containing prepolymer for use in a one-component system and having a viscosity of from 2500 to 50 000 mPa.s, measured at 25°C using Brookfield Viscometer according to the ASTM D 4889 standard without any plasticizer added to the prepolymer, which prepolymer is obtainable by reacting at least one isocyanate comprising a polymeric methylene diphenyl diisocyanate, with at least one first compound selected from the group comprising monohydric alcohols, thiols and secondary amines; wherein the ratio of the NCO value of the isocyanate-containing prepolymer, to the OH, SH or NH value, of said monohydric alcohol, thiol or secondary amine respectively ranges from 0.0005 to 1.0000 and wherein said at least one first compound is present in a total amount of at least 40% by weight based on the total weight of the isocyanate-containing prepolymer.
Modified polyvinyl alcohol comprising a monomer unit having a carboxyl group, wherein the modified polyvinyl alcohol has a degree of saponification of from 50 to 99.99 mol% and a viscosity-average degree of polymerization of from 200 to 5000 and satisfies formulae to 3 below, 0.8 ≤ Mw UV / Mw RI ≤ 1.2 2 ≤ Mw UV / Mn UV ≤ 8 0.01 ≤ A 280 ≤ 0.8 Mw UV: weight-average molecular weight of the modified polyvinyl alcohol measured by an absorptiometer (measurement wavelength of 280 nm) in gel permeation chromatographic measurement of the modified polyvinyl alcohol, Mw RI: weight-average molecular weight of the modified polyvinyl alcohol measured by a differential refractive index detector in gel permeation chromatographic measurement of the modified polyvinyl alcohol, Mn UV: number-average molecular weight of the modified polyvinyl alcohol measured by an absorptiometer (measurement wavelength of 280 nm) in gel permeation chromatographic measurement of the modified polyvinyl alcohol, A 280: absorbance (optical path length of 10 mm, wavelength of 280 nm) of a 1 mass% aqueous solution of the modified polyvinyl alcohol, wherein the viscosity-average degree of polymerization is measured in accordance with JIS-K6726, as disclosed in the description, and wherein Mw UV, Mw RI and Mn UV are determined by gel permeation chromatography using hexafluoroisopropanol with 20 mmol/L sodium trifluoroacetate as mobile phase and calibration curves based on standard PMMA samples, as disclosed in the description. Mw UV: weight-average molecular weight of the modified polyvinyl alcohol measured by an absorptiometer (measurement wavelength of 280 nm) in gel permeation chromatographic measurement of the modified polyvinyl alcohol, Mw RI: weight-average molecular weight of the modified polyvinyl alcohol measured by a differential refractive index detector in gel permeation chromatographic measurement of the modified polyvinyl alcohol, Mn UV: number-average molecular weight of the modified polyvinyl alcohol measured by an absorptiometer (measurement wavelength of 280 nm) in gel permeation chromatographic measurement of the modified polyvinyl alcohol, A 280: absorbance (optical path length of 10 mm, wavelength of 280 nm) of a 1 mass% aqueous solution of the modified polyvinyl alcohol, wherein the viscosity-average degree of polymerization is measured in accordance with JIS-K6726, as disclosed in the description, and wherein Mw UV, Mw RI and Mn UV are determined by gel permeation chromatography using hexafluoroisopropanol with 20 mmol/L sodium trifluoroacetate as mobile phase and calibration curves based on standard PMMA samples, as disclosed in the description.
A loading unit for use with a surgical instrument, the loading unit comprising: a proximal body portion configured to engage a portion of a surgical instrument and defining a longitudinal axis; a pair of jaw members (506, 508) disposed adjacent the proximal body portion and extending generally distally therefrom, at least one of the jaw members being movable with respect to the other between an open position and an approximated position for engaging body tissue therebetween, the pair of jaw members including a first jaw member and a second jaw member; and a plurality of staples disposed at least partially within the second jaw member, wherein at least some of the staples disposed in a first portion of the second jaw member having a smaller height than at least some of the staples disposed in a second portion of the second jaw member; wherein the second jaw member further comprises a slot configured to allow a knife to travel at least partially therealong, wherein the slot is curved with respect to the longitudinal axis; characterised in that the first portion of the second jaw member is disposed (i) on an inner side of the curvature of the slot and (ii) farther proximally than the second portion of the second jaw member, and the second portion of the second jaw member is further disposed on an outer side of the curvature of the slot. a proximal body portion configured to engage a portion of a surgical instrument and defining a longitudinal axis; a pair of jaw members (506, 508) disposed adjacent the proximal body portion and extending generally distally therefrom, at least one of the jaw members being movable with respect to the other between an open position and an approximated position for engaging body tissue therebetween, the pair of jaw members including a first jaw member and a second jaw member; and a plurality of staples disposed at least partially within the second jaw member, wherein at least some of the staples disposed in a first portion of the second jaw member having a smaller height than at least some of the staples disposed in a second portion of the second jaw member; wherein the second jaw member further comprises a slot configured to allow a knife to travel at least partially therealong, wherein the slot is curved with respect to the longitudinal axis; characterised in that the first portion of the second jaw member is disposed (i) on an inner side of the curvature of the slot and (ii) farther proximally than the second portion of the second jaw member, and the second portion of the second jaw member is further disposed on an outer side of the curvature of the slot.
An axial fan (100, 200) which comprises: a motor (108, 208) which includes a drive end (110, 210), a non-drive end (112, 212) and a shaft (106, 206) which extends axially from the drive end (110, 210), and an impeller (102, 202) which includes a number of impeller blades that extend radially; wherein in operation the motor spins the impeller (102, 202) to generate an airflow; the generated airflow moving in a direction from the non-drive end (112, 212) of the motor (108, 208) to the drive end (110, 210) of the motor; wherein the impeller further includes a cylindrical impeller cup (104, 204) from which the impeller blades extend radially, the impeller cup comprising an open upstream end and a closed downstream end which is connected to the shaft; wherein the impeller cup (104, 204) is configured to receive the motor (108, 208) therein and surround the drive end (110, 210) of the motor but not the non-drive end (112, 212) of the motor; whereby the non-drive end (112, 212) of the motor (108, 208) is exposed to the airflow during operation of the fan (100, 200); and wherein the motor (108, 208) is supported by a number of struts; characterized in that the struts are connected to the motor (108, 208) at the drive end (110, 210). a motor (108, 208) which includes a drive end (110, 210), a non-drive end (112, 212) and a shaft (106, 206) which extends axially from the drive end (110, 210), and an impeller (102, 202) which includes a number of impeller blades that extend radially; wherein in operation the motor spins the impeller (102, 202) to generate an airflow; the generated airflow moving in a direction from the non-drive end (112, 212) of the motor (108, 208) to the drive end (110, 210) of the motor; wherein the impeller further includes a cylindrical impeller cup (104, 204) from which the impeller blades extend radially, the impeller cup comprising an open upstream end and a closed downstream end which is connected to the shaft; wherein the impeller cup (104, 204) is configured to receive the motor (108, 208) therein and surround the drive end (110, 210) of the motor but not the non-drive end (112, 212) of the motor; whereby the non-drive end (112, 212) of the motor (108, 208) is exposed to the airflow during operation of the fan (100, 200); and wherein the motor (108, 208) is supported by a number of struts;