mhurhangee/ep-ind-claims huggingface dataset:
A tape comprising: i) a first release liner; and, ii) a pressure sensitive adhesive layer disposed on said first release liner, wherein said pressure sensitive adhesive layer is obtained by curing an adhesive composition comprising: a) an acrylic base copolymer obtained from a monomer mixture comprising at least one C1-C12 alkyl ester of (meth)acrylic acid and at least one acid monomer selected from acrylic acid, methacrylic acid, maleic acid, fumaric acid and itaconic acid; b) a metal chelate cross-linking agent; c) at least one tackifying resin; d) an organic solvent; and, optionally e) additives, said tape optionally comprising iii) a second release liner which is disposed on that side of said pressure sensitive adhesive layer opposite to said first release liner. i) a first release liner; and, ii) a pressure sensitive adhesive layer disposed on said first release liner, wherein said pressure sensitive adhesive layer is obtained by curing an adhesive composition comprising: a) an acrylic base copolymer obtained from a monomer mixture comprising at least one C1-C12 alkyl ester of (meth)acrylic acid and at least one acid monomer selected from acrylic acid, methacrylic acid, maleic acid, fumaric acid and itaconic acid; b) a metal chelate cross-linking agent; c) at least one tackifying resin; d) an organic solvent; and, optionally e) additives, a) an acrylic base copolymer obtained from a monomer mixture comprising at least one C1-C12 alkyl ester of (meth)acrylic acid and at least one acid monomer selected from acrylic acid, methacrylic acid, maleic acid, fumaric acid and itaconic acid; b) a metal chelate cross-linking agent; c) at least one tackifying resin; d) an organic solvent; and, optionally e) additives,
Stabilization bearing system for a geared turbofan engine, in particular an aircraft engine, with a stabilization bearing for an input shaft device to an epicyclic gearbox device of the geared turbofan engine, the stabilization bearing being located axially in front of an input shaft device location bearing system, characterized in that the axial distance between the input shaft device location bearing system and the stabilization bearing is 1 to 8 times the mean diameter of the input shaft device and the axial distance of the stabilization bearing from the centerline of the epicyclic gearbox device is 2 to 4 times the mean diameter of the input shaft device at the epicyclic gearbox device. characterized in that the axial distance between the input shaft device location bearing system and the stabilization bearing is 1 to 8 times the mean diameter of the input shaft device and the axial distance of the stabilization bearing from the centerline of the epicyclic gearbox device is 2 to 4 times the mean diameter of the input shaft device at the epicyclic gearbox device.
Vehicle tyre having a tread, two sidewalls, a tyre inside, a tyre cavity, at least one carcass ply and a belt ply, wherein the tyre components have different rubber compounds and reinforcements, wherein the vehicle tyre has an electrical resistance of greater than 10 6 ohms that can be ascertained according to ISO standard 16392, characterized in that the vehicle tyre has a specific identification indicating that the vehicle tyre is approved exclusively for specific vehicles, and wherein the information for the specific identification is stored on an RFID chip and the RFID chip is installed permanently with the vehicle tyre and wherein this information includes that the vehicle tyre is nonconductive. wherein the tyre components have different rubber compounds and reinforcements, wherein the vehicle tyre has an electrical resistance of greater than 10 6 ohms that can be ascertained according to ISO standard 16392, characterized in that the vehicle tyre has a specific identification indicating that the vehicle tyre is approved exclusively for specific vehicles, and wherein the information for the specific identification is stored on an RFID chip and the RFID chip is installed permanently with the vehicle tyre and wherein this information includes that the vehicle tyre is nonconductive.
A planar fin comprising: a bottom fin edge coupled to the base planar surface and running parallel to a longitudinal axis of the planar fin; a top fin edge that is opposite the bottom fin edge and running parallel to the longitudinal axis of the planar fin; a leading fin edge extending from the bottom fin edge to the top fin edge; a trailing fin edge opposite the leading fin edge and extending from the bottom fin edge to the top fin edge; a fin body extending from the bottom fin edge to the top fin edge and having a first side defining a first planar surface and second side opposite the first side defining a second planar surface; and a first set of turbulent structures extending from the first planar surface, each turbulent structure in the first set of turbulent structures defining a longitudinal axis of the turbulent structure and having a first edge that is parallel to the longitudinal axis of the turbulent structure and connected to the first planar surface and a second edge opposite the first edge and in free space, the second edge defining a periphery that varies in distance from the first edge along the length of the longitudinal axis of the turbulent structure; and characterized in that the periphery of each second edge is shaped such that the fluid flows over the second edge, and is further shaped such that turbulent flow of a fluid is induced in the flow flowing over the second edge at at least a predefined flow rate. a bottom fin edge coupled to the base planar surface and running parallel to a longitudinal axis of the planar fin; a top fin edge that is opposite the bottom fin edge and running parallel to the longitudinal axis of the planar fin; a leading fin edge extending from the bottom fin edge to the top fin edge; a trailing fin edge opposite the leading fin edge and extending from the bottom fin edge to the top fin edge; a fin body extending from the bottom fin edge to the top fin edge and having a first side defining a first planar surface and second side opposite the first side defining a second planar surface; and a first set of turbulent structures extending from the first planar surface, each turbulent structure in the first set of turbulent structures defining a longitudinal axis of the turbulent structure and having a first edge that is parallel to the longitudinal axis of the turbulent structure and connected to the first planar surface and a second edge opposite the first edge and in free space, the second edge defining a periphery that varies in distance from the first edge along the length of the longitudinal axis of the turbulent structure; and characterized in that the periphery of each second edge is shaped such that the fluid flows over the second edge, and is further shaped such that turbulent flow of a fluid is induced in the flow flowing over the second edge at at least a predefined flow rate.
A method for a switch from a first communication path between a first device and a second device to a second communication path to be established between the first device and the second device, wherein the first communication path is a device-to-device communication path and the second communication path is an infrastructure communication path, or the first communication path is an infrastructure communication path and the second communication path is a device-to-device communication path, and comprising: in response to an initiation of the switch, sending a notification of the initiation of the switch to a base station, for setting up an intermediate communication path between the first device and the second device, wherein the intermediate communication path is relayed by the base station and does not pass a core network; and delivering traffic between the first device and the second device via the intermediate communication path until the second communication path is established. in response to an initiation of the switch, sending a notification of the initiation of the switch to a base station, for setting up an intermediate communication path between the first device and the second device, wherein the intermediate communication path is relayed by the base station and does not pass a core network; and delivering traffic between the first device and the second device via the intermediate communication path until the second communication path is established.
A roller shutter mounting, including a winding axis of the apron of the shutter connected at its axial ends to side flanges and motorized driving means (2, 3) of said winding axis, said driving means (2, 3) being positioned in one of the side flanges, characterized in that the driving means consist of an electric motor whereof the rotor is connected to the axis and the stator is secured to the flange.
Anti-run over safety device for an industrial vehicle comprising: a support member adapted to be secured to a front area of the vehicle; at least one bulkhead (14a, 14b) constrained to the support member and movable between a raised running position and a lowered activated position in which said bulkhead cantilevers downward to reduce the free frontal space below the vehicle; and means for activating the bulkhead (14a, 14b) in response to a signal (Si) indicating an impact, said bulkhead (14a, 14b) being hinged to the support member; characterized in that said support member is a lower cross-member located in the vicinity of a front bumper of the vehicle and comprises a central portion and a pair of lateral portions bent backwards starting from the central portion, said device comprising a central bulkhead constrained to the central portion of the lower cross-member and a pair of side bulkheads constrained to the lateral portions of said lower cross-member; said side bulkheads being partially overlapping the central bulkhead in said running position. a support member adapted to be secured to a front area of the vehicle; at least one bulkhead (14a, 14b) constrained to the support member and movable between a raised running position and a lowered activated position in which said bulkhead cantilevers downward to reduce the free frontal space below the vehicle; and means for activating the bulkhead (14a, 14b) in response to a signal (Si) indicating an impact, said bulkhead (14a, 14b) being hinged to the support member;
A bispecific antibody for use in the treatment of an autoimmune disease, wherein the bispecific antibody is a fusion protein comprising: (i) a heavy chain variable region of anti-human PD-1 antibody, (ii) a light chain variable region of anti-human PD-1 antibody, (iii) a heavy chain variable region of anti-human CD3 antibody, and (iv) a light chain variable region of anti-human CD3 antibody, and binds to human PD-1 and human CD3 simultaneously, wherein said human CD3 is expressed on the same cell expressing said human PD-1; and wherein the autoimmune disease is selected from the group consisting of glomerular nephritis, arthritis, dilated cardiomyopathy-like disease, ulcerous colitis, Sjogren's syndrome, Crohn's disease, systemic lupus erythematodes, chronic rheumatoid arthritis, multiple sclerosis, psoriasis, allergic contact dermatitis, polymyositis, pachyderma, periarteritis nodosa, rheumatic fever, vitiligo vulgaris, insulin dependent diabetes mellitus, Behcet's disease, Hashimoto's disease, Addison's disease, dermatomyositis, Myasthenia gravis, Reiter's syndrome, Graves' disease, anaemia perniciosa, Goodpasture's syndrome, sterility disease, chronic active hepatitis, pemphigus, autoimmune thrombocytopenic purpura, and autoimmune hemolytic anemia. (i) a heavy chain variable region of anti-human PD-1 antibody, (ii) a light chain variable region of anti-human PD-1 antibody, (iii) a heavy chain variable region of anti-human CD3 antibody, and (iv) a light chain variable region of anti-human CD3 antibody,
A rotor for a motor for driving a laundry appliance, the rotor connected to a drive shaft and comprising: a rotor frame including at least one polymeric material; a central hub having a core defining a core outer surface and a perimetrical ring that extends circumferentially around the core, offset from and outside of the core outer surface, wherein the perimetrical ring includes an outer ring surface and an inner ring surface; wherein the inner ring surface and the core outer surface define an attachment portion and a portion of the at least one polymeric material is received within the attachment portion to secure the rotor frame to the central hub; wherein the polymeric material extends continuously through the rotor frame or in conjunction with various metallic or other dissimilar materials to form a unitary rotor frame. a rotor frame including at least one polymeric material; a central hub having a core defining a core outer surface and a perimetrical ring that extends circumferentially around the core, offset from and outside of the core outer surface, wherein the perimetrical ring includes an outer ring surface and an inner ring surface; wherein the inner ring surface and the core outer surface define an attachment portion and a portion of the at least one polymeric material is received within the attachment portion to secure the rotor frame to the central hub; wherein the polymeric material extends continuously through the rotor frame or in conjunction with various metallic or other dissimilar materials to form a unitary rotor frame.
System for measuring the water volume fraction, WVF, of a mixed fluid flow in a pipe, especially wet and dry gas hydrocarbon fluid flows, the system comprising a measuring unit (2,3) for measuring the dielectric permittivity of said fluid mixture, a processing unit for calculating and storing both the WVF based on the dielectric permittivity, and the statistical variation of the dielectric permittivity of said fluid mixture over a predetermined period of time, characterised in that the processing unit also includes an analysis unit for detecting drift in the calculated WVF by comparing and analyzing the development of the calculated WVF versus the statistical variation of the permittivity over said time period, and based on detected drift to determine whether the development in the calculated WVF is reflected in a corresponding change in the statistical variation of the permittivity, the processing unit thus based on said comparison and analysis being configured to determine if the drift is caused by a real change in the WVF. flow in a pipe, especially wet and dry gas hydrocarbon fluid flows, the system comprising a measuring unit (2,3) for measuring the dielectric permittivity of said fluid mixture, a processing unit for calculating and storing both the WVF based on the dielectric permittivity, and the statistical variation of the dielectric permittivity of said fluid mixture over a predetermined period of time, characterised in that the processing unit also includes an analysis unit for detecting drift in the calculated WVF by comparing and analyzing the development of the calculated WVF versus the statistical variation of the permittivity over said time period, and based on detected drift to determine whether the development in the calculated WVF is reflected in a corresponding change in the statistical variation of the permittivity, the processing unit thus based on said comparison and analysis being configured to determine if the drift is caused by a real change in the WVF.
A method of transmitting MPEG Media Transport, MMT, packets in a broadcasting and communication system, the method comprising: receiving MMT Processing Units, MPUs, included in MMT assets, where each MPU is a unit by which a media decoder performs data decompression; generating a plurality of MMT packets from each MPU; generating a Forward Error Correction, FEC, source block, constituted of a predetermined number of MMT packets, by using plural MPUs, included in plural MMT assets; and performing FEC encoding for the generated FEC source block to generate an FEC parity block, transmitting the generated FEC source block, and the generated parity block; characterized in that unless all MMT packets generated from the plural MPUs included in the plural MMT assets are included in the generated FEC source block, it is excluded that the generated FEC source block includes an MMT packet generated from a second MPU included in an MMT asset among the plural MMT assets, the second MPU being different from a first MPU included in the MMT asset, MMT packets generated from the first MPU of the MMT asset being included within the generated FEC source block. receiving MMT Processing Units, MPUs, included in MMT assets, where each MPU is a unit by which a media decoder performs data decompression; generating a plurality of MMT packets from each MPU; generating a Forward Error Correction, FEC, source block, constituted of a predetermined number of MMT packets, by using plural MPUs, included in plural MMT assets; and performing FEC encoding for the generated FEC source block to generate an FEC parity block, transmitting the generated FEC source block, and the generated parity block; characterized in that unless all MMT packets generated from the plural MPUs included in the plural MMT assets are included in the generated FEC source block, it is excluded that the generated FEC source block includes an MMT packet generated from a second MPU included in an MMT asset among the plural MMT assets, the second MPU being different from a first MPU included in the MMT asset, MMT packets generated from the first MPU of the MMT asset being included within the generated FEC source block.
A method for manufacturing a semiconductor device, comprising: providing a donor wafer comprising a first semiconductor material; forming a sacrificial layer on the donor wafer, the sacrificial layer comprising a second semiconductor material forming a pattern of fins separated from each other by shallow trench isolation, STI, regions in the donor wafer; forming an active layer on the sacrificial layer, the active layer comprising a group IV semiconductor material or a group III-V semiconductor material or a group II-VI semiconductor material; bonding the active layer to a handling wafer; lifting off the donor wafer from the handling wafer such that the active layer is left on the handling wafer; reusing the donor wafer by re-growing the pattern of fins between the STI regions. providing a donor wafer comprising a first semiconductor material; forming a sacrificial layer on the donor wafer, the sacrificial layer comprising a second semiconductor material forming a pattern of fins separated from each other by shallow trench isolation, STI, regions in the donor wafer; forming an active layer on the sacrificial layer, the active layer comprising a group IV semiconductor material or a group III-V semiconductor material or a group II-VI semiconductor material; bonding the active layer to a handling wafer; lifting off the donor wafer from the handling wafer such that the active layer is left on the handling wafer; reusing the donor wafer by re-growing the pattern of fins between the STI regions.
A recording ink comprising: a solid component containing a colorant and a resin, and being solid in ink at 25°C. a liquid component having a boiling point higher than that of water and being liquid in ink at 25°C, and water, wherein the liquid component comprises a wetting agent, and the wetting agent is at least one selected from glycerine, 1,3-butanediol, 3-methyl-1,3-butanediol, 2-pyrrolidone, and N-methyl-2-pyrrolidone, wherein the liquid component comprises a penetrant, and the penetrant is a polyol compound having 8 to 11 carbon atoms, wherein the liquid component comprises a surfactant, and the surfactant comprises a fluorochemical surfactant, wherein the total amount of the solid component contained in the recording ink is equal to 8.5% by mass or higher and less than 15% by mass, a ratio (A/B) of the total amount of glycerine to the total amount of the solid component contained in the recording ink is 1.1 to 2.5, and a ratio (C/B) of the total amount of the liquid component in the recording ink to the total amount of the solid component in the recording ink is 1.85 to 3.10. a solid component containing a colorant and a resin, and being solid in ink at 25°C. a liquid component having a boiling point higher than that of water and being liquid in ink at 25°C, and water, wherein the liquid component comprises a wetting agent, and the wetting agent is at least one selected from glycerine, 1,3-butanediol, 3-methyl-1,3-butanediol, 2-pyrrolidone, and N-methyl-2-pyrrolidone, wherein the liquid component comprises a penetrant, and the penetrant is a polyol compound having 8 to 11 carbon atoms, wherein the liquid component comprises a surfactant, and the surfactant comprises a fluorochemical surfactant, wherein the total amount of the solid component contained in the recording ink is equal to 8.5% by mass or higher and less than 15% by mass, a ratio (A/B) of the total amount of glycerine to the total amount of the solid component contained in the recording ink is 1.1 to 2.5, and a ratio (C/B) of the total amount of the liquid component in the recording ink to the total amount of the solid component in the recording ink is 1.85 to 3.10.
Method for producing a metal sheet, the method comprising at least steps of: - providing a steel substrate having two faces each coated with a metal coating obtained by dipping the substrate in a bath and cooling, each metal coating comprising zinc, between 0.7 and 6% by weight aluminium and between 0.1 and 10% by weight magnesium, and then - disrupting, at least by applying mechanical stress applied by a leveller, a brushing device or a shot peening device to the outer surfaces of the metal coatings, layers of magnesium oxide or magnesium hydroxide formed on the outer surfaces, and then - applying an adhesive chosen from structural, reinforced structural or semi-structural adhesives, mastic sealants and bedding mastics, locally to at least one outer surface of a metal coating, - assembling with a second metal sheet by way of the adhesive. - providing a steel substrate having two faces each coated with a metal coating obtained by dipping the substrate in a bath and cooling, each metal coating comprising zinc, between 0.7 and 6% by weight aluminium and between 0.1 and 10% by weight magnesium, and then - disrupting, at least by applying mechanical stress applied by a leveller, a brushing device or a shot peening device to the outer surfaces of the metal coatings, layers of magnesium oxide or magnesium hydroxide formed on the outer surfaces, and then - applying an adhesive chosen from structural, reinforced structural or semi-structural adhesives, mastic sealants and bedding mastics, locally to at least one outer surface of a metal coating, - assembling with a second metal sheet by way of the adhesive.