mhurhangee/ep-ind-claims huggingface dataset:
Set for a glenoid implant, comprising: - an anatomic articulating member (50, 60), having a concave articulating surface (51, 61) intended to articulate with a complementary humeral implant and having an anatomic coupling feature (52, 62), - a reversed articulating member (70, 80, 90, 100, 110, 120), having a convex articulating surface intended to articulate with a complementary humeral implant and having a reversed coupling feature (70, 80) that is shaped differently from the anatomic coupling feature, and - an anchorage member intended to be anchored in a human glenoid, the anchorage member including a body which defines a proximodistal axis and which has an inner bore extending along the proximodistal axis, the body being operable to be axially introduced into the glenoid before being coupled indifferently with one or the other of the anatomic and reversed articulating members, characterized in that the body is provided within the inner bore with both: - an inner first feature that is designed to cooperate with the anatomic coupling feature (52, 62) when the anatomic coupling feature is introduced within the inner bore, so as to fixedly couple the anchorage member with the anatomic articulating member (50, 60), and - an inner second feature that is designed to cooperate with the reversed coupling feature (70, 80) when the reversed coupling feature is introduced within the inner bore, so as to fixedly couple the anchorage member with the reversed articulating member (70, 80, 90, 100, 110, 120), the first feature and the second feature being distinct from each other. - an anatomic articulating member (50, 60), having a concave articulating surface (51, 61) intended to articulate with a complementary humeral implant and having an anatomic coupling feature (52, 62), - a reversed articulating member (70, 80, 90, 100, 110, 120), having a convex articulating surface intended to articulate with a complementary humeral implant and having a reversed coupling feature (70, 80) that is shaped differently from the anatomic coupling feature, and - an anchorage member intended to be anchored in a human glenoid, the anchorage member including a body which defines a proximodistal axis and which has an inner bore extending along the proximodistal axis, the body being operable to be axially introduced into the glenoid before being coupled indifferently with one or the other of the anatomic and reversed articulating members, - an inner first feature that is designed to cooperate with the anatomic coupling feature (52, 62) when the anatomic coupling feature is introduced within the inner bore, so as to fixedly couple the anchorage member with the anatomic articulating member (50, 60), and - an inner second feature that is designed to cooperate with the reversed coupling feature (70, 80) when the reversed coupling feature is introduced within the inner bore, so as to fixedly couple the anchorage member with the reversed articulating member (70, 80, 90, 100, 110, 120), the first feature and the second feature being distinct from each other.
Device for producing a 3D-printed active substance releasing system with active substance depots, having at least one inkjet print head and a first radiation source, a trough, in which a base material to be processed is arranged, a construction platform, wherein the construction platform is movably mounted within the trough, wherein the device is formed in such a way that the first radiation source effects polymerization of selected regions of the base material on the construction platform during operation, wherein the device is formed in such a way that the at least one inkjet print head incorporates an active substance mixture in the base material on the construction platform in a locally selective manner during operation, wherein the active substance mixture has at least one active substance.
Backrest of a vehicle seat comprising a backrest armature with an upper cross member (17 4) and a lower cross member (17 3), at least one central upholstery module and two side upholstery modules (36, 38) each arranged on a respective side of the central upholstery module, each of the at least three upholstery modules (36, 38, 40) being fixable to the backrest armature independently of the other two upholstery modules (36, 38, 40), each of the at least three upholstery modules (36, 38, 40) being preferably fixed to the backrest armature independently of the other two upholstery modules (36, 38, 40) backrest in which the central upholstery module comprises at least one support, fixed to the backrest armature, and one foam block covering in whole or in part the support, wherein the support extends in a longitudinal direction between two longitudinal ends (54 1, 54 2) of the support, the longitudinal ends (54 1, 54 2) of the support being curved, one longitudinal end (54 2) of the support resting on the upper cross member (17 4) of the backrest armature and the other longitudinal end (54 1) of the support accommodating the lower cross member (17 3) of the backrest armature, the longitudinal ends (54 1, 54 2) of the support respectively comprising snap fitting reliefs, complementary to snap fitting reliefs on the upper and lower cross members (17 3, 17 4) of the backrest armature for fixing onto the lower (17 3) and upper (17 4) cross members by snap fitting.
A modular life extension kit for use with a support frame for a wind turbine generator, the support frame including at least a support member coupled to a support cross-member (58,59), the support member having a first length and the support cross-member having a second length, wherein the support frame has a frame area at least partially defined by the support member and the support cross-member (58,59), said modular life extension kit comprising: a plurality of plates (301,302,304,306,308,310,312) configured to be coupled to the support frame, wherein at least a first plate of said plurality of plates has a first side configured to be coupled to the support member and a second side configured to be coupled to the support cross-member, the first side extending at least five percent of the first length and the second side extending at least five percent of the second length; wherein said plurality of plates (301,302,304,306,308,310,312) have, when assembled to the support frame, a surface area that enables a person to walk on said plurality of plates, which thereby together form a floor. a plurality of plates (301,302,304,306,308,310,312) configured to be coupled to the support frame, wherein at least a first plate of said plurality of plates has a first side configured to be coupled to the support member and a second side configured to be coupled to the support cross-member, the first side extending at least five percent of the first length and the second side extending at least five percent of the second length; wherein said plurality of plates (301,302,304,306,308,310,312) have, when assembled to the support frame, a surface area that enables a person to walk on said plurality of plates, which thereby together form a floor.
Process for preparing 4-haloalkyl-3-mercapto-substituted 2-hydroxybenzoic acid derivatives of the general formula, characterized in that 4-thio-substituted β-keto esters of the formula are reacted with alkoxyvinyl haloalkyl ketones of the formula at a temperature of ≥ -30°C in the presence of a tertiary amine and of a solvent, and in which the radicals, symbols and indices are each defined as follows: R 1, R 2 and R 3 are each independently (C 1 -C 6)-alkyl substituted by p radicals from the group consisting of fluorine, chlorine, (C 1 -C 4)-alkoxy and (C 3 -C 7 -cycloalkyl, (C 3 -C 7)-cycloalkyl substituted by p radicals from the group consisting of fluorine, chlorine, (C 1 -C 4)-alkyl, (C 1 -C 4) -alkoxy and (C3-C7 -cycloalkyl, phenyl, 1-naphthyl, 2-naphthyl or 5- or 6-membered heteroaryl, each substituted by p radicals from the group consisting of fluorine, chlorine, bromine, iodine, (C 1 -C 4) -alkyl, (C 1 -C 4) -alkoxy, (C 3 -C 7 -cycloalkyl and (C 1 -C 4)-alkylthio, where said heteroaryl contains one or two heteroatoms from the group consisting of oxygen and nitrogen, X is halo- (C 1 -C 4) -alkyl, p is 0, 1, 2, 3 or 4. R 1, R 2 and R 3 are each independently (C 1 -C 6)-alkyl substituted by p radicals from the group consisting of fluorine, chlorine, (C 1 -C 4)-alkoxy and (C 3 -C 7 -cycloalkyl, (C 3 -C 7)-cycloalkyl substituted by p radicals from the group consisting of fluorine, chlorine, (C 1 -C 4)-alkyl, (C 1 -C 4) -alkoxy and (C3-C7 -cycloalkyl, phenyl, 1-naphthyl, 2-naphthyl or 5- or 6-membered heteroaryl, each substituted by p radicals from the group consisting of fluorine, chlorine, bromine, iodine, (C 1 -C 4) -alkyl, (C 1 -C 4) -alkoxy, (C 3 -C 7 -cycloalkyl and (C 1 -C 4)-alkylthio, where said heteroaryl contains one or two heteroatoms from the group consisting of oxygen and nitrogen, X is halo- (C 1 -C 4) -alkyl, p is 0, 1, 2, 3 or 4. X is halo- (C 1 -C 4) -alkyl, p is 0, 1, 2, 3 or 4.
An optical fiber sensing method, comprising the steps of: providing an optical fiber measuring unit, a plurality of heat shrinkable tubes and at least one fixing element, wherein (i) the heat shrinkable tubes are fastened on an optical fiber of the optical fiber measuring unit, (ii) the optical fiber has at least one sensing segment, (iii) the heat shrinkable tubes are fastened at an upper end and a lower end of the at least one sensing segment, respectively, and (iv) the at least one fixing element is sleeved and fastened on the heat shrinkable tube at the lower end of the at least one sensing segment; detachably connecting at least one floating element to the at least one fixing element, so that the at least one floating element provides tensile force on the at least one sensing segment of the optical fiber; placing the at least one floating element into a fluid, so that the fluid provides buoyant force on the at least one floating element; and driving the optical fiber measuring unit to provide an input signal to the at least one sensing segment and generating an output signal after the input signal is processed by the at least one sensing segment, wherein the tensile force applied to the at least one sensing segment changes with variation of the buoyant force on the at least one floating element, resulting in change of the output signal; wherein the at least one fixing element and the at east one floating element are configured to be rapidly assembled with or detached from each other.
Cover for a pourable goods container, wherein the cover has a first cover element having at least one connecting opening for filling or emptying and with first opposing sides (11, 12), and wherein two first side elements are provided on second sides (13, 14) of the first cover element which are different from the first sides (11, 12) of the first cover element, wherein the two first side elements are attached to the first cover element so as to each fold over a folding edge with respect to the first cover element so that the first side elements can be folded underneath or over the first cover element characterised in that the cover comprises two second cover elements (la) which are connected to the first cover element on opposite first sides (11, 12) of said first cover element, wherein the second cover elements more particularly each have a similar or smaller surface area than the first cover element and that the cover is formed from compact plates and/or corrugated paper and/or film-lined corrugated board and/or webbed plastic boards and/or lightweight plastic boards and/or solid plastic plates and/or composite plates and/or aluminium and/or fibre compound plates and/or compound material, more particularly organic sheet wherein the second cover elements (la) are attached to the first cover element so that they can each be folded over a folding edge with respect to this element so that the second cover elements can be folded underneath or over the first cover element.
A suspension monitoring and adjustment system for an off-road vehicle, the system comprising: a distance sensor (110A, 110B, 120) arranged to measure shock displacement of a suspension of the vehicle; an output device (130, 400) communicatively coupled to the distance sensor (110A, 110B, 120) and configured to output shock displacement data generated by the distance sensor (110A, 110B, 120); and a non-transitory program storage medium on which are stored instructions executable by a processor or programmable circuit to produce a visual representation of the shock displacement data output by the output device (130, 400); characterised in that the visual representation of the shock displacement data includes a graph of shock displacement over time. a distance sensor (110A, 110B, 120) arranged to measure shock displacement of a suspension of the vehicle; an output device (130, 400) communicatively coupled to the distance sensor (110A, 110B, 120) and configured to output shock displacement data generated by the distance sensor (110A, 110B, 120); and a non-transitory program storage medium on which are stored instructions executable by a processor or programmable circuit to produce a visual representation of the shock displacement data output by the output device (130, 400); characterised in that the visual representation of the shock displacement data includes a graph of shock displacement over time.
A method for memory allocation, comprising: loading boot data from a first portion of a first non-volatile memory to complete a first booting of a device, wherein the first non-volatile memory is a solid-state drive; storing the boot data to a second non-volatile memory, wherein the second non-volatile memory is a hard-disk drive; after the storing, releasing the first portion of the first non-volatile memory to allow the device to overwrite the first portion; writing the boot data from the second non-volatile memory to the first non-volatile memory before the device enters a reduced power state, wherein the written boot data is to be loaded from the first non-volatile memory to complete a second booting of the device, if the second booting is initiated; retaining a copy of the boot data at the second non-volatile memory; storing, on the first non-volatile memory, an address location of the copy of the boot data at the second non-volatile memory; and loading the boot data from the second non-volatile memory if the boot data cannot be loaded from the first non-volatile memory to complete at least one of the first and second booting, wherein the boot data is loadable faster from the first nonvolatile memory than the second non-volatile memory. loading boot data from a first portion of a first non-volatile memory to complete a first booting of a device, wherein the first non-volatile memory is a solid-state drive; storing the boot data to a second non-volatile memory, wherein the second non-volatile memory is a hard-disk drive; after the storing, releasing the first portion of the first non-volatile memory to allow the device to overwrite the first portion; writing the boot data from the second non-volatile memory to the first non-volatile memory before the device enters a reduced power state, wherein the written boot data is to be loaded from the first non-volatile memory to complete a second booting of the device, if the second booting is initiated; retaining a copy of the boot data at the second non-volatile memory; storing, on the first non-volatile memory, an address location of the copy of the boot data at the second non-volatile memory; and loading the boot data from the second non-volatile memory if the boot data cannot be loaded from the first non-volatile memory to complete at least one of the first and second booting, wherein the boot data is loadable faster from the first nonvolatile memory than the second non-volatile memory.
A vehicle hood structure comprising: a hood outer panel that structures a hood outer plate; a lock reinforcement that is provided at a lower side of a vehicle front portion of the hood outer panel, and that supports a hood lock; and a hood inner panel whose front end portion is disposed between the hood outer panel and the lock reinforcement, and that structures a hood inner plate, a plurality of beads that respectively extend in a vehicle longitudinal direction being provided in parallel in a vehicle transverse direction at the hood inner panel, and the hood inner panel being disposed such that a front end portion of at least one of the beads is positioned further toward a vehicle front side than a rear end portion of the lock reinforcement, characterized in that a front portion of the hood inner panel and the rear end portion of the lock reinforcement are disposed with a gap therebetween in a vertical direction. a hood outer panel that structures a hood outer plate; a lock reinforcement that is provided at a lower side of a vehicle front portion of the hood outer panel, and that supports a hood lock; and a hood inner panel whose front end portion is disposed between the hood outer panel and the lock reinforcement, and that structures a hood inner plate, a plurality of beads that respectively extend in a vehicle longitudinal direction being provided in parallel in a vehicle transverse direction at the hood inner panel, and the hood inner panel being disposed such that a front end portion of at least one of the beads is positioned further toward a vehicle front side than a rear end portion of the lock reinforcement, characterized in that a front portion of the hood inner panel and the rear end portion of the lock reinforcement are disposed with a gap therebetween in a vertical direction.
An axial inlet, radial outlet supercharger, comprising: lobed rotors (102, 103), each lobed rotor comprising a rotation axis, wherein the lobes (102A, 102B, 102C, 103A, 103B, 103C) sequentially mesh when the rotors rotate; a tubular housing, the tubular housing comprising: an inlet wall; an inlet axis perpendicular to the inlet wall; an inlet through the inlet wall, the inlet configured to direct inlet air parallel to the inlet axis; an outlet configured to emit the inlet air perpendicular to the inlet axis; two rotor mounting recesses (1030, 1020) in an inner surface of the inlet wall, the inlet axis being between the two rotor mounting recesses; the supercharger being characterized in that: the inlet axis is parallel to the rotation axis of the lobed rotors (102, 103) and the tubular housing further comprises at least two axial flow backflow ports through the inlet wall. lobed rotors (102, 103), each lobed rotor comprising a rotation axis, wherein the lobes (102A, 102B, 102C, 103A, 103B, 103C) sequentially mesh when the rotors rotate; a tubular housing, the tubular housing comprising: an inlet wall; an inlet axis perpendicular to the inlet wall; an inlet through the inlet wall, the inlet configured to direct inlet air parallel to the inlet axis; an outlet configured to emit the inlet air perpendicular to the inlet axis; two rotor mounting recesses (1030, 1020) in an inner surface of the inlet wall, the inlet axis being between the two rotor mounting recesses; an inlet wall; an inlet axis perpendicular to the inlet wall; an inlet through the inlet wall, the inlet configured to direct inlet air parallel to the inlet axis; an outlet configured to emit the inlet air perpendicular to the inlet axis; two rotor mounting recesses (1030, 1020) in an inner surface of the inlet wall, the inlet axis being between the two rotor mounting recesses; the supercharger being characterized in that: the inlet axis is parallel to the rotation axis of the lobed rotors (102, 103) and the tubular housing further comprises at least two axial flow backflow ports through the inlet wall.
Plug connector for an electrical connection having at least two electrical lines, the ends of which are connected to contact elements, and having a housing that encompasses the electrical lines and the contact elements in the region of their connecting site, wherein the housing is fixedly connected to a holding means, wherein the holding means comprises receptacles for the electrical lines, said receptacles fixedly clamping the lines and therefore holding said lines in such a manner that said lines cannot move out of position, characterized in that the holding means is embodied in a cup-shaped or U-shaped manner so that said holding means encompasses the housing in the region of the electrical lines, and in that the holding element and/or the housing of the plug connector comprise/comprises shaped elements that render it possible to make the connection to the plug connector in only one orientation.
An anti-theft case composed of two jointed half-shells, provided with a locking means and incorporating a remotely detectable marker, characterized in that one of the half-shells has, along one of its edges, a plurality of transverse pins, each one being connected to the edges of the half-shell by a connecting arm, with the pins and the arms being moulded in one piece with the corresponding half-shell, and in that the matching half-shell has transverse recesses for receiving said pins so as to form a pivoting joint, with said recesses opening outwardly and extending from the bottom of the box up to front parts having a semi-tubular inner surface so as to enable, when the case is open, the insertion of the plurality of arms and pins into a plurality of matching recesses.
A kit comprising: i. a sunscreen composition in form of a cream, of a solution or of an emulsion with sun protection factor at least 50 which comprises at least one UV-screening compound and liposomes including photolyase from Anacystis nidulans; ii. a composition in form of a cream, of a solution or of an oil/water emulsion comprising liposomes including endonuclease from Micrococcus luteus. i. a sunscreen composition in form of a cream, of a solution or of an emulsion with sun protection factor at least 50 which comprises at least one UV-screening compound and liposomes including photolyase from Anacystis nidulans; ii. a composition in form of a cream, of a solution or of an oil/water emulsion comprising liposomes including endonuclease from Micrococcus luteus.
A method for antenna performance evaluation, the method comprising: acquiring signal metrics and positions of a plurality of user equipments, UEs, within a coverage area of an antenna array; generating, from the signal metrics and positions, an antenna performance map showing how signal metric as a variable changes relative to position as another variable; and evaluating the antenna performance by determining obstacle related information based on a comparison between the generated antenna performance map and a reference antenna performance map, wherein determining the obstacle related information comprises calculating changes between the generated antenna performance map and the reference antenna performance map at a plurality of positions. acquiring signal metrics and positions of a plurality of user equipments, UEs, within a coverage area of an antenna array; generating, from the signal metrics and positions, an antenna performance map showing how signal metric as a variable changes relative to position as another variable; and evaluating the antenna performance by determining obstacle related information based on a comparison between the generated antenna performance map and a reference antenna performance map, wherein determining the obstacle related information comprises calculating changes between the generated antenna performance map and the reference antenna performance map at a plurality of positions.