mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of formula (I) wherein: R 1 and R 2 are independently selected from hydrogen, halogen atom, C 1-6 alkyl, haloC 1-6 alkyl; R 3 is hydrogen, halogen atom, C 1-6 alkyl, cyano group; R 4 is C 1-6 alkyl; R 5 is C 1-6 alkyl optionally substituted by a halogen atom or halogen atoms, C 3-5 cycloalkyl; C 3-5 cycloalkylC 1-6 alkyl, dialkylamino, C 1-6 alkoxy, C 1-6 alkoxyC 1-6 alkyl, C 1-6 alkylthio group, tetrahydrofuranyl, tetrahydrofuranylC 1-6 alkyl, tetrahydropyranyl, tetrahydropyranylC 1-6 alkyl; or R 4 and R 5 together form an unsubstituted or substituted by one or more C 1-3 alkyl, C 1-3 alkoxy, haloC 1-3 alkyl, C 1-3 alkylcarbonyl 3 to 7-membered saturated ring, wherein the members of the ring are selected from the group consisting of carbon, nitrogen, oxygen, and sulphur; R 6 is hydrogen, halogen atom or C 1-6 alkyl, hydroxyl, C 1-6 alkoxy, C 1-6 alkoxyC 1-6 alkyl, haloC 1-6 alkyl, amino group; or pharmaceutically acceptable salts, enantiomers, diastereomers, solvates and hydrates thereof.
A texture processing unit comprising: a controller configured to determine a first calculator that performs a calculation on a first mipmap and a second calculator that performs a calculation on a second mipmap, based on a level of detail (LOD) weight indicating influences of the first mipmap and the second mipmap on texture filtering, the influences being based on an LOD value of graphics; and a texture filter configured to perform the texture filtering by using the first calculator and the second calculator, characterized in that a calculation precision of the first calculator is different from a calculation precision of the second calculator. a controller configured to determine a first calculator that performs a calculation on a first mipmap and a second calculator that performs a calculation on a second mipmap, based on a level of detail (LOD) weight indicating influences of the first mipmap and the second mipmap on texture filtering, the influences being based on an LOD value of graphics; and a texture filter configured to perform the texture filtering by using the first calculator and the second calculator, characterized in that a calculation precision of the first calculator is different from a calculation precision of the second calculator.
A blade assembly (400; 700; 900a, 900b) for a gas turbine engine, the blade assembly comprising: a fan blade (402; 502; 702; 902a, 902b) having a leading edge (408; 508), a trailing edge (410; 510), a root (416; 516), a tip , a first side (412; 712), and a second side (414; 714), the fan blade having a first tab (422; 524) extending from the leading edge proximate the root and a second tab (422; 526) extending from the trailing edge proximate the root; a first platform (404; 604; 704; 904a, 904b) affixed to the first side of the fan blade at the first tab and the second tab and extending in a direction from the leading edge to the trailing edge along the first side; and a second platform (406; 606; 706; 906a, 906b) affixed to the second side of the fan blade at the first tab and the second tab and extending in a direction from the leading edge to the trailing edge along the second side; at least one first fastener (420; 620; 920a, 920b) connecting the first platform, the first tab, and the second platform; and at least one second fastener (420; 620; 920a, 920b) connecting the first platform, the second tab, and the second platform. a fan blade (402; 502; 702; 902a, 902b) having a leading edge (408; 508), a trailing edge (410; 510), a root (416; 516), a tip , a first side (412; 712), and a second side (414; 714), the fan blade having a first tab (422; 524) extending from the leading edge proximate the root and a second tab (422; 526) extending from the trailing edge proximate the root; a first platform (404; 604; 704; 904a, 904b) affixed to the first side of the fan blade at the first tab and the second tab and extending in a direction from the leading edge to the trailing edge along the first side; and a second platform (406; 606; 706; 906a, 906b) affixed to the second side of the fan blade at the first tab and the second tab and extending in a direction from the leading edge to the trailing edge along the second side; at least one first fastener (420; 620; 920a, 920b) connecting the first platform, the first tab, and the second platform; and at least one second fastener (420; 620; 920a, 920b) connecting the first platform, the second tab, and the second platform.
A complex device comprising: a printed circuit board with one or more receptacles and one or more light-emitting diodes positioned within the one or more receptacles of the printed circuit board; characterized in that the device comprises a foldable circuit board coupled to the printed circuit board, wherein the foldable circuit board has at least one beam-shaping aperture through which light emitted by the one or more light-emitting diodes passes, the one or more receptacles being positioned behind the at least one beam-shaping aperture; and the one or more light-emitting diodes are soldered to a front surface of the foldable circuit board , wherein the foldable circuit board is folded to be in alignment with the one or more receptacles and to position the light-emitting diode in the receptacle of the printed circuit board, so as the at least one beam-shaping aperture is in front of the one or more light-emitting diodes to allow the complex device to select part of the light rays emitted by the one or more light emitting diodes. a printed circuit board with one or more receptacles and one or more light-emitting diodes positioned within the one or more receptacles of the printed circuit board; characterized in that the device comprises a foldable circuit board coupled to the printed circuit board, wherein the foldable circuit board has at least one beam-shaping aperture through which light emitted by the one or more light-emitting diodes passes, the one or more receptacles being positioned behind the at least one beam-shaping aperture; and the one or more light-emitting diodes are soldered to a front surface of the foldable circuit board , wherein the foldable circuit board is folded to be in alignment with the one or more receptacles and to position the light-emitting diode in the receptacle of the printed circuit board, so as the at least one beam-shaping aperture is in front of the one or more light-emitting diodes to allow the complex device to select part of the light rays emitted by the one or more light emitting diodes.
An implantable lead (100; 200; 300) comprising: an elongated lead body having at least one lumen (102a-102d, 103) therein and at least one through hole ; and at least one electrically conductive wire (104a-104c); wherein, for at least one of said at least one lumen (102a-102d), a first through hole extends from an outer surface of the lead body into said lumen , and an electrically conductive wire is arranged in said lumen at least on one side of said first through hole ; wherein said electrically conductive wire is further arranged in a configuration exiting said lumen via said first through hole and wound around a predefined portion of the outer surface of the lead body ; and wherein the lead body has a proximal end portion configured for connecting the implantable lead to a housing of an active medical implantable device, and a distal end portion configured for sensing and/or stimulating a tissue, and wherein the implantable lead further comprises an electrical connector plug arranged at the proximal end portion of the lead body , characterized in that said first through hole is arranged closer to the proximal end portion than to the distal end portion, and the predefined portion is a portion of the lead body immediately following the electrical connector plug . an elongated lead body having at least one lumen (102a-102d, 103) therein and at least one through hole ; and at least one electrically conductive wire (104a-104c); wherein, for at least one of said at least one lumen (102a-102d), a first through hole extends from an outer surface of the lead body into said lumen , and an electrically conductive wire is arranged in said lumen at least on one side of said first through hole ; wherein said electrically conductive wire is further arranged in a configuration exiting said lumen via said first through hole and wound around a predefined portion of the outer surface of the lead body ; and wherein the lead body has a proximal end portion configured for connecting the implantable lead to a housing of an active medical implantable device, and a distal end portion configured for sensing and/or stimulating a tissue, and wherein the implantable lead further comprises an electrical connector plug arranged at the proximal end portion of the lead body , characterized in that said first through hole is arranged closer to the proximal end portion than to the distal end portion, and the predefined portion is a portion of the lead body immediately following the electrical connector plug .
A method for estimating the state of an electrical switching device , the switching device comprising separable electrical contacts configured to be coupled to an electrical conductor , and an electromagnetic actuator driven by a control circuit and comprising a moving core coupled to the separable contacts and a coil through which a coil current (I BOB ) flows, characterised in that the method comprises the steps consisting of: - measuring , by means of sensors (Rsh) associated with the coil , values of the coil current (I BOB ) during a time interval (Δt), while the electromagnetic actuator is held in a stable position, in particular a closed position, - calculating , by means of an electronic control device for controlling the switching device , one or more values of a magnetic flux ( Φ ) of the coil from the measured coil current (I BOB ) values, and using previously known coil voltage (U BOB ) and coil resistance (R BOB ) values. - measuring , by means of sensors (Rsh) associated with the coil , values of the coil current (I BOB ) during a time interval (Δt), while the electromagnetic actuator is held in a stable position, in particular a closed position, - calculating , by means of an electronic control device for controlling the switching device , one or more values of a magnetic flux ( Φ ) of the coil from the measured coil current (I BOB ) values, and using previously known coil voltage (U BOB ) and coil resistance (R BOB ) values.
A nucleic acid sequence comprising a sequence of contiguous nucleotides, wherein said sequence of contiguous nucleotides has at least 90% sequence identity to the nucleic acid sequence of SEQ ID NO: 1, and wherein said sequence of contiguous nucleotides encodes a single-chain BoNT/E1 protein.
Method for avoiding a permissible maximum pressure being exceeded in a hydraulic power vehicle braking system with slip control, wherein the vehicle braking system has a power pressure generator to which a plurality of hydraulic wheel brakes are connected via inlet valves , which are connected via outlet valves to a brake fluid storage container , wherein, for power braking and/or for slip control, a brake pressure in the vehicle braking system is generated with the power pressure generator , and for wheel brake pressure control, an outlet valve of a wheel brake is opened, characterized in that the inlet valves are continuous valves, and in that the inlet valve of a wheel brake of which the outlet valve is open or opened is partly closed or partly opened.
A wireless communication apparatus comprising: an antenna including an antenna element ; a fixing member formed of an electric conductor and configured to fix the antenna; an electric supply unit electrically connected to the antenna and configured to supply electric power to the antenna; and an outer housing formed of an electric conductor and configured to enclose the antenna, the fixing member, and the electric supply unit, the outer housing having an opening for allowing electromagnetic waves from the antenna to radiate outward from the outer housing, wherein the antenna is disposed at a position closer to the opening of the outer housing than to the fixing member, and the electric supply unit and a first region of the antenna element that is positioned on the electric supply unit side of the antenna element are disposed at a position closer to the fixing member than a second region of the antenna element including an open end portion of the antenna element positioned on an opposite side of the antenna element to the electric supply unit. an antenna including an antenna element ; a fixing member formed of an electric conductor and configured to fix the antenna; an electric supply unit electrically connected to the antenna and configured to supply electric power to the antenna; and an outer housing formed of an electric conductor and configured to enclose the antenna, the fixing member, and the electric supply unit, the outer housing having an opening for allowing electromagnetic waves from the antenna to radiate outward from the outer housing, wherein the antenna is disposed at a position closer to the opening of the outer housing than to the fixing member, and the electric supply unit and a first region of the antenna element that is positioned on the electric supply unit side of the antenna element are disposed at a position closer to the fixing member than a second region of the antenna element including an open end portion of the antenna element positioned on an opposite side of the antenna element to the electric supply unit.
Electric device , comprising a printed circuit board with an electric circuit with at least one electric component and a connector to ground , whereat said printed circuit board and said connector to ground are electrically and mechanically connected to each other via at least one connecting element , wherein, at least one of said at least one connecting element is designed as a coiled spring pin , whereat said at least one coiled spring pin is inserted concurrently into a pin hole of said printed circuit board and into a pin hole of said connector to ground each corresponding to said coiled spring pin , wherein, said pin hole of said connector to ground is designed with a first and a second section , whereat said first section is located at an end of said pin hole facing said printed circuit board and said second section is located at an end of said pin hole opposite to said end facing said printed circuit board , and whereat a diameter of said pin hole in said first section is larger than a diameter of said pin hole in said second section . at least one of said at least one connecting element is designed as a coiled spring pin , whereat said at least one coiled spring pin is inserted concurrently into a pin hole of said printed circuit board and into a pin hole of said connector to ground each corresponding to said coiled spring pin , wherein, said pin hole of said connector to ground is designed with a first and a second section , whereat said first section is located at an end of said pin hole facing said printed circuit board and said second section is located at an end of said pin hole opposite to said end facing said printed circuit board , and whereat a diameter of said pin hole in said first section is larger than a diameter of said pin hole in said second section .
A detection device for detecting presence of at least one pathogenic microorganism and/or at least one corresponding antibody in a biological sample, the detection device comprising: - a body , - at least one first detection member and one second detection member on said body and prearranged for binding said at least one pathogenic microorganism and/or said at least one corresponding antibody, - at least one fluidic circuit in said body , comprising at least one introduction portion for said biological sample, wherein from the at least one introduction portion there extend at least one first circuit branch and a second circuit branch (6"), for receiving at least one first fraction and one second fraction of the biological sample, respectively, wherein the first and second circuit branches (6', 6") and the first and second detection members are configured in such a way that said first fraction can reach the first detection member and said second fraction can to reach the second detection member , wherein one of the first circuit branch and the second circuit branch (6") comprises a dissociation chamber for performing a dissociation of complexes between said at least one pathogenic microorganism and said at least one corresponding antibody possibly present in the biological sample. - a body , - at least one first detection member and one second detection member on said body and prearranged for binding said at least one pathogenic microorganism and/or said at least one corresponding antibody, - at least one fluidic circuit in said body , comprising at least one introduction portion for said biological sample, wherein from the at least one introduction portion there extend at least one first circuit branch and a second circuit branch (6"), for receiving at least one first fraction and one second fraction of the biological sample, respectively, wherein the first and second circuit branches (6', 6") and the first and second detection members are configured in such a way that said first fraction can reach the first detection member and said second fraction can to reach the second detection member , wherein one of the first circuit branch and the second circuit branch (6") comprises a dissociation chamber for performing a dissociation of complexes between said at least one pathogenic microorganism and said at least one corresponding antibody possibly present in the biological sample.
A detection agent for detecting 25-hydroxyvitamin D, characterized in that it comprises a conjugate formed by a 25-hydroxyvitamin D antigen derivative coupled to a protein carrier, and a magnetic sphere coated by the conjugate, wherein the 25-hydroxyvitamin D antigen derivative has the following formula: wherein m is 1, 2, or 3, and n is 2, 3, 4, 5, or 6; wherein the magnetic sphere has on its surface one or more moieties selected from the group consisting of the following: an epoxy group, a sulfonyl group, an amino group, an aldehyde group, an amide group, a mercapto group, and a hydroxyl group.
A system comprising: a lift propulsion module , the lift propulsion module including a first rotor system , a second rotor system , and a wing member disposed between the first and second rotor systems , the wing member including a forward spar and an aft spar and further including at least a structural system comprising a leading edge , a trailing edge , a port end and starboard end , 448d,and an upper airfoil surface and lower airfoil surface that form an airfoil assembly , and wherein the structural system further includes a first mounting surface formed from a notch in the trailing edge for connection of the wing aft spar to a fuselage (301a-301e) and a second mounting surface formed from a notch in the leading edge for connection between the wing forward spar and a fuselage (301a-301e); and a plurality of interchangeable fuselages of different types (301a-301e), each of the plurality of interchangeable fuselages (301a-301e) is configured to be physically interchangeable with the lift propulsion module by connection of the wing aft spar to the fuselage (301a-301e) via the first mounting surface and by connection of the wing forward spar to the fuselage via the second mounting surface of the lift propulsion module . a lift propulsion module , the lift propulsion module including a first rotor system , a second rotor system , and a wing member disposed between the first and second rotor systems , the wing member including a forward spar and an aft spar and further including at least a structural system comprising a leading edge , a trailing edge , a port end and starboard end , 448d,and an upper airfoil surface and lower airfoil surface that form an airfoil assembly , and wherein the structural system further includes a first mounting surface formed from a notch in the trailing edge for connection of the wing aft spar to a fuselage (301a-301e) and a second mounting surface formed from a notch in the leading edge for connection between the wing forward spar and a fuselage (301a-301e); and a plurality of interchangeable fuselages of different types (301a-301e), each of the plurality of interchangeable fuselages (301a-301e) is configured to be physically interchangeable with the lift propulsion module by connection of the wing aft spar to the fuselage (301a-301e) via the first mounting surface and by connection of the wing forward spar to the fuselage via the second mounting surface of the lift propulsion module .
Stator for an electrical machine , having a stator laminated core , the stator laminated core having stator slots arranged along an axial direction (A) parallel to a stator axis, electrical conductors being arranged in the stator slots , wherein fluid-tight slot insulations are arranged between the electrical conductors and the stator laminated core in the stator slots , wherein the slot insulations each comprise a cooling channel spaced apart from the electrical conductors in a radial direction (R) orthogonal to the axial direction (A), wherein the cooling channels are arranged in slots of the stator laminated core and in yoke-side recesses of the stator laminated core , characterised in that the cooling channels have a smaller extension in the direction of rotation (U) than the electrical conductors , wherein the yoke-side recesses have a smaller extension in the direction of rotation (U) than the electrical conductors . the cooling channels are arranged in slots of the stator laminated core and in yoke-side recesses of the stator laminated core , characterised in that the cooling channels have a smaller extension in the direction of rotation (U) than the electrical conductors , wherein the yoke-side recesses have a smaller extension in the direction of rotation (U) than the electrical conductors .
Hardening accelerator composition obtainable by reaction of a water-soluble calcium compound with a water-soluble silicate compound in the presence of an aqueous solution which contains a water-soluble comb polymer suitable as a plasticizer for hydraulic binders which comb polymer is a copolymer which contains, on the main chain, side chains having ether functions, and acid functions, and has an average molecular weight M w of 20.000 to 70.000 g/mol, to obtain a suspension containing calcium silicate hydrate in finely dispersed form, the molar ratio of calcium to silicon in the calcium silicate hydrate being from 0.6 to 2, and the calcium silicate hydrate particles having a particle diameter smaller than 500 nm, the particle size of the calcium silicate hydrate being measured by analytical ultracentrifugation, wherein a solution of the water-soluble calcium compound and a solution of the water-soluble silicate compound are added separately and simultaneously to an aqueous solution containing a water-soluble comb polymer. which comb polymer is a copolymer which contains, on the main chain, side chains having ether functions, and acid functions, and has an average molecular weight M w of 20.000 to 70.000 g/mol, to obtain a suspension containing calcium silicate hydrate in finely dispersed form, the molar ratio of calcium to silicon in the calcium silicate hydrate being from 0.6 to 2, and the calcium silicate hydrate particles having a particle diameter smaller than 500 nm, the particle size of the calcium silicate hydrate being measured by analytical ultracentrifugation, wherein a solution of the water-soluble calcium compound and a solution of the water-soluble silicate compound are added separately and simultaneously to an aqueous solution containing a water-soluble comb polymer.