mhurhangee/ep-ind-claims huggingface dataset:
A method of testing an electrical drive system that includes an electric motor having a stator, a rotor and an armature, and which can be represented as having two armature phases, characterised in that the electric motor is configured to produce mechanical motion to actuate a latching or unlatching mechanism and the method comprises the steps of: i) driving the motor in accordance with a non-zero direct-axis current demand profile, which profile requires driving the motor at full-rated or near full-rated current to produce a direct axis current in the armature and/or a quadrature axis current in the armature; ii) aligning flux produced by the stator with flux produced by the rotor; iii) monitoring the position of the rotor; and iv) controlling the direct axis current in the armature and/or the quadrature axis current in the armature to avoid or minimise rotation of the rotor, enabling the electrical drive system to carry full rated or near full-rated current yet produce little or no torque and without breaking the latching or unlatching mechanism. i) driving the motor in accordance with a non-zero direct-axis current demand profile, which profile requires driving the motor at full-rated or near full-rated current to produce a direct axis current in the armature and/or a quadrature axis current in the armature; ii) aligning flux produced by the stator with flux produced by the rotor; iii) monitoring the position of the rotor; and iv) controlling the direct axis current in the armature and/or the quadrature axis current in the armature to avoid or minimise rotation of the rotor,
A curable composition comprising: a) 30-80 wt% of a room temperature liquid epoxy resin; b) 0.5-10 wt% of an epoxy curative; c) 5-40 wt% of a thermoplastic resin; d) 0.5-10 wt% of a physical blowing agent; and e) 0.5-25 wt.% of flame retardant additives; wherein the curable composition comprises a mixture of a neat room temperature liquid epoxy resin and an epoxy/reactive diluent room temperature liquid epoxy resin; and wherein the epoxy/reactive diluent room temperature liquid epoxy resin is an epoxy resin mixed with a reactive diluent such that it is a liquid at room temperature. a) 30-80 wt% of a room temperature liquid epoxy resin; b) 0.5-10 wt% of an epoxy curative; c) 5-40 wt% of a thermoplastic resin; d) 0.5-10 wt% of a physical blowing agent; and e) 0.5-25 wt.% of flame retardant additives; wherein the curable composition comprises a mixture of a neat room temperature liquid epoxy resin and an epoxy/reactive diluent room temperature liquid epoxy resin; and
LED lamp, comprising: a lighting means having at least one LED, a supply circuit for the at least one LED, a heat sink (K1-K6) and a driver housing for accommodating a driver for operating the LED, characterized in that the heat sink (K1-K6) is designed in such a way that it forms a plurality of channels (1, 1', 1", 1''') having a circular cross section for removing air heated by an operation of the lighting means, wherein the channels (1, 1', 1", 1''') are arranged in a ring around an axis, wherein the length of at least one channel (1, 1', 1", 1''') is at least half of the shortest diagonal or transverse in the transverse dimension of the corresponding one channel, and wherein the driver housing has a surface region which forms an inner boundary of at least a portion of the channels (1, 1', 1", 1''') and which is preferably connected flat to the heat sink (K1-K6), wherein the channels (1, 1', 1", 1''') have varying diameters along their longitudinal axis. a lighting means having at least one LED, a supply circuit for the at least one LED, a heat sink (K1-K6) and a driver housing for accommodating a driver for operating the LED, characterized in that the heat sink (K1-K6) is designed in such a way that it forms a plurality of channels (1, 1', 1", 1''') having a circular cross section for removing air heated by an operation of the lighting means, wherein the channels (1, 1', 1", 1''') are arranged in a ring around an axis, wherein the length of at least one channel (1, 1', 1", 1''') is at least half of the shortest diagonal or transverse in the transverse dimension of the corresponding one channel, and wherein the driver housing has a surface region which forms an inner boundary of at least a portion of the channels (1, 1', 1", 1''') and which is preferably connected flat to the heat sink (K1-K6), wherein the channels (1, 1', 1", 1''') have varying diameters along their longitudinal axis.
A DNA vaccine comprising the attenuated Salmonella typhi strain Ty21a transformed by a plasmid that contains a DNA comprising a eukaryotic expression cassette encoding the human VEGFR-2 protein of SEQ ID NO 1, for use in an anti-angiogenic cancer immunotherapy in humans wherein the vaccine is administered orally and the single dose of the vaccine is from 1x10 6 to 1x10 8 colony forming units.
Method for printing a rim flange of a vehicle wheel with a wheel disc and a rim around the flange, comprising the following steps: - fixing the vehicle wheel to a wheel receiving device, so that the wheel disc of the vehicle wheel is arranged in a freely accessible manner; wherein the method is characterised by the following steps: - positioning a printing roller opposite a predetermined surface of an outer rim flange of the rim at a predetermined distance from the surface of the rim flange; - starting a rotation of the vehicle wheel and/or of the wheel receiving device; - positioning the printing roller on the predetermined surface of the outer rim flange and starting a printing process by supplying a printing ink and starting a rotation of the printing roller; - continuously pivoting the vehicle wheel and/or the wheel receiving device from a horizontal position up to a predetermined maximum pivot angle, wherein the predetermined maximum pivot angle is greater than 90°; - lifting the printing roller from a surface of the outer rim flange. - fixing the vehicle wheel to a wheel receiving device, so that the wheel disc of the vehicle wheel is arranged in a freely accessible manner; - positioning a printing roller opposite a predetermined surface of an outer rim flange of the rim at a predetermined distance from the surface of the rim flange; - starting a rotation of the vehicle wheel and/or of the wheel receiving device; - positioning the printing roller on the predetermined surface of the outer rim flange and starting a printing process by supplying a printing ink and starting a rotation of the printing roller; - continuously pivoting the vehicle wheel and/or the wheel receiving device from a horizontal position up to a predetermined maximum pivot angle, wherein the predetermined maximum pivot angle is greater than 90°; - lifting the printing roller from a surface of the outer rim flange.
A tip adapter for attaching a tip to a work implement, the tip adapter comprising: a nose portion that is configured to facilitate the attachment of a tip; a first leg; a second leg; a throat portion that connects the legs (204, 206) and nose portion together and that includes a top throat surface that spans from the nose portion to the first leg; wherein the first and second legs (204, 206) define a slot that includes a closed end and an open end, the slot defining a direction of assembly onto a work implement and the tip adapter defines a Cartesian coordinate system having a X-axis, Y-axis and Z-axis and defining a X-Y plane, a X-Z plane, and a Y-Z plane, wherein the X-axis is parallel with the direction of assembly and passes through the center of mass of the tip adapter; and the top throat surface includes a top flat portion that is parallel to the direction of assembly and a top arcuate portion that extends rearward from the top flat portion, characterized in that the top arcuate portion defines a radius of curvature projected onto a X-Z plane along the Y-axis ranging from 100 mm to 300 mm, further wherein the top arcuate portion is divided into a first part and a second part, each having different radii of curvatures. a nose portion that is configured to facilitate the attachment of a tip; a first leg; a second leg; a throat portion that connects the legs (204, 206) and nose portion together and that includes a top throat surface that spans from the nose portion to the first leg; wherein the first and second legs (204, 206) define a slot that includes a closed end and an open end, the slot defining a direction of assembly onto a work implement and the tip adapter defines a Cartesian coordinate system having a X-axis, Y-axis and Z-axis and defining a X-Y plane, a X-Z plane, and a Y-Z plane, wherein the X-axis is parallel with the direction of assembly and passes through the center of mass of the tip adapter; and the top throat surface includes a top flat portion that is parallel to the direction of assembly and a top arcuate portion that extends rearward from the top flat portion, characterized in that the top arcuate portion defines a radius of curvature projected onto a X-Z plane along the Y-axis ranging from 100 mm to 300 mm, further wherein the top arcuate portion is divided into a first part and a second part, each having different radii of curvatures.
Emulsifying composition (c) for water in diesel oil fuel micro-emulsions comprising: 1) from 20.0 to 33.0 % by weight of at least a non - ionic polymer, selected among polyglycerides from mono-, di- and tri-glycerides of fatty acids; 2) from 6.0 to 10.0 % by weight of at least a lipophilic non-ionic surfactant, having HLB lower than 7 selected among sorbitan alkyl esters, fatty alcohols and their polyethoxylated derivatives, polyethoxylated fatty acid esters, glycerol esters and their admixtures; 3) from 16.0 to 29.0% by weight of at least a hydrophilic non-ionic surfactant having HLB higher than 10 selected among polyoxyethlyene derivatives of sorbitan alkyl esters, ethoxylated fatty alcohol, polyethoxylated fatty acid esters, glycerol esters and their admixtures; 4) from 6.5 to 11.5 % by weight of at least an anionic surfactant selected among organic sulfates, sulfonates, phosphates and carboxylates salts; 5) from 9.5 to 16.5 % by weight of at least an amphoteric surfactant. 1) from 20.0 to 33.0 % by weight of at least a non - ionic polymer, selected among polyglycerides from mono-, di- and tri-glycerides of fatty acids; 2) from 6.0 to 10.0 % by weight of at least a lipophilic non-ionic surfactant, having HLB lower than 7 selected among sorbitan alkyl esters, fatty alcohols and their polyethoxylated derivatives, polyethoxylated fatty acid esters, glycerol esters and their admixtures; 3) from 16.0 to 29.0% by weight of at least a hydrophilic non-ionic surfactant having HLB higher than 10 selected among polyoxyethlyene derivatives of sorbitan alkyl esters, ethoxylated fatty alcohol, polyethoxylated fatty acid esters, glycerol esters and their admixtures; 4) from 6.5 to 11.5 % by weight of at least an anionic surfactant selected among organic sulfates, sulfonates, phosphates and carboxylates salts; 5) from 9.5 to 16.5 % by weight of at least an amphoteric surfactant.
An easily removable paper tube comprising: a perforated portion formed by helically perforating a winding surface of the paper tube with a cylindrical shape; with at least one sheet of film or paper that wraps around an outermost circumferential surface of the paper tube, characterized in that: a length of the sheet of film or paper is shorter than a length of the paper tube and longer than a length of a section for material to be wound around the paper tube. a perforated portion formed by helically perforating a winding surface of the paper tube with a cylindrical shape; with at least one sheet of film or paper that wraps around an outermost circumferential surface of the paper tube, characterized in that: a length of the sheet of film or paper is shorter than a length of the paper tube and longer than a length of a section for material to be wound around the paper tube.
Backrest for a vehicle seat comprising: - a backrest armature, - a backrest upholstery (36, 38, 40) fixed to the backrest armature, the backrest upholstery (36, 38, 40) having at least one slit (96, 97), each slit (96, 97) being adapted to receive a headrest support rod by relative movement of the upholstery (36, 38, 40) with respect to the backrest armature in a longitudinal direction of the vehicle seat, and - at least a first and a second trim element (50; 52), each trim element (50, 52) forming at least one notch (84, 95), a notch of the first trim element and a notch of the second trim element defining a passage for a headrest support rod, the second trim element covering at least partially, preferably completely, the at least one slit (96, 97) in the upholstery (36, 38, 40), at least one of the first and second trim elements (50; 52) being in contact with the upholstery (36, 38, 40), in particular with a foam block (42, 44, 46) of the upholstery (36, 38, 40), wherein each trim element (50, 52) preferably forms two notches (84, 95), such that each notch of the first trim element is facing a respective notch of the second trim element so as to define a passage having a complementary cross section to the cross section of a respective headrest support rod. - a backrest armature, - a backrest upholstery (36, 38, 40) fixed to the backrest armature, the backrest upholstery (36, 38, 40) having at least one slit (96, 97), each slit (96, 97) being adapted to receive a headrest support rod by relative movement of the upholstery (36, 38, 40) with respect to the backrest armature in a longitudinal direction of the vehicle seat, and - at least a first and a second trim element (50; 52), each trim element (50, 52) forming at least one notch (84, 95), a notch of the first trim element and a notch of the second trim element defining a passage for a headrest support rod, the second trim element covering at least partially, preferably completely, the at least one slit (96, 97) in the upholstery (36, 38, 40), at least one of the first and second trim elements (50; 52) being in contact with the upholstery (36, 38, 40), in particular with a foam block (42, 44, 46) of the upholstery (36, 38, 40), wherein each trim element (50, 52) preferably forms two notches (84, 95), such that each notch of the first trim element is facing a respective notch of the second trim element so as to define a passage having a complementary cross section to the cross section of a respective headrest support rod.
An installation for the sterilization of objects, preferably by means of a steam-air mixture, wherein the objects are similar to each other and elongated and each have an axis L, which is the longest of the main axes of the object and more than twice as long as the other main axes of the object, wherein the installation comprises the following devices: a) a sterilization chamber, b) an automatic device for the arrangement of the objects in groups, wherein the objects are arranged in at least one group such that their main axes L are aligned parallel to each other and wherein the objects of the group are provided with a wrapping and wherein the wrapping is applied such that a bundle of objects arises and the wrapping material follows the edge of a surface or the edges of a plurality of parallel surfaces, which is or are substantially perpendicular to the longitudinal axes of the objects, c) an automatic device, in order to provide each group of objects with a wrapping partially, but not completely covering the group, d) devices, in order to introduce at least one group of objects including the wrapping partially, but not completely covering the group into the sterilization chamber, e) devices for the removal of the objects of the group as a bundle including their wrapping from the sterilization chamber, f) automatic devices, in order to introduce each group of objects including their wrapping into a packaging means, which is suitable for the complete wrapping of the group of objects. a) a sterilization chamber, b) an automatic device for the arrangement of the objects in groups, wherein the objects are arranged in at least one group such that their main axes L are aligned parallel to each other and wherein the objects of the group are provided with a wrapping and wherein the wrapping is applied such that a bundle of objects arises and the wrapping material follows the edge of a surface or the edges of a plurality of parallel surfaces, which is or are substantially perpendicular to the longitudinal axes of the objects, c) an automatic device, in order to provide each group of objects with a wrapping partially, but not completely covering the group, d) devices, in order to introduce at least one group of objects including the wrapping partially, but not completely covering the group into the sterilization chamber, e) devices for the removal of the objects of the group as a bundle including their wrapping from the sterilization chamber, f) automatic devices, in order to introduce each group of objects including their wrapping into a packaging means, which is suitable for the complete wrapping of the group of objects.
A method of preventing random access response collision for a network in a wireless communication system, the method comprising: assigning a first preamble for a non contention random access procedure on a secondary cell configured to a first mobile device of the wireless communication system, to the first mobile device; configuring a first preamble transmission time for indicating at least a subframe for the first mobile device to transmit the first preamble on the secondary cell to the network, to the first mobile device; characterized by assigning a second preamble for a non contention random access procedure to a second mobile device of the wireless communication system, wherein the second preamble is the same as the first preamble, and the second mobile device and the first mobile device have the same primary cell; and configuring a second preamble transmission time for indicating at least a subframe for the second mobile device to transmit the second preamble to the network, to the second mobile device, wherein the second preamble transmission time is different to the first preamble transmission time. assigning a first preamble for a non contention random access procedure on a secondary cell configured to a first mobile device of the wireless communication system, to the first mobile device; configuring a first preamble transmission time for indicating at least a subframe for the first mobile device to transmit the first preamble on the secondary cell to the network, to the first mobile device; characterized by assigning a second preamble for a non contention random access procedure to a second mobile device of the wireless communication system, wherein the second preamble is the same as the first preamble, and the second mobile device and the first mobile device have the same primary cell; and configuring a second preamble transmission time for indicating at least a subframe for the second mobile device to transmit the second preamble to the network, to the second mobile device, wherein the second preamble transmission time is different to the first preamble transmission time.
A method for leaching vanadium and tungsten contained in a waste denitrification catalyst by using a pressure leaching process, the method comprising the steps of: forming a mixture by mixing a waste denitrification catalyst with a sodium salt solution; and leaching 90% or more of vanadium and tungsten contained in the mixture by feeding the mixture into a sealed pressurized reactor, and then heating and stirring the mixture, wherein the waste denitrification catalyst includes vanadium and tungsten in oxide forms, wherein the concentration of the sodium salt solution is 2 to 3 M, wherein the heating temperature is 225°C to 250°C, and wherein the pressure of the pressurized reactor is 20 to 80 atm. forming a mixture by mixing a waste denitrification catalyst with a sodium salt solution; and leaching 90% or more of vanadium and tungsten contained in the mixture by feeding the mixture into a sealed pressurized reactor, and then heating and stirring the mixture, wherein the waste denitrification catalyst includes vanadium and tungsten in oxide forms, wherein the concentration of the sodium salt solution is 2 to 3 M, wherein the heating temperature is 225°C to 250°C, and wherein the pressure of the pressurized reactor is 20 to 80 atm.
Method for manufacturing containers by blow moulding in a blank mould made of plastic, comprising, during the manufacture of a container: - a step of inserting a blank into a mould; - at least one step of placing the interior of the blank into communication with at least one fluidic circuit ( 34; 40; 46; 52) by way of a solenoid valve ( EV1; EV2; EV3; EV4) associated with said circuit ( 34; 40; 46; 52); - at a preset point in time, called the solenoid-valve opening pip ( TEV1;...; TEV4), sending a command to open to said solenoid valve ( EV1; EV2; EV3; EV4), which possesses a theoretical opening delay ( Dt1;...; Dt4), i.e. the time that should theoretically pass between the opening pip and the point in time at which the solenoid valve ( EV1; EV2; EV3; EV4) actually opens; characterized in that it comprises steps consisting in: - calculating the actual opening delay ( De1;...; De4) of said solenoid valve ( EV1; EV2; EV3; EV4), i.e. the time passed between the opening pip and the actual point in time ( Te1;...; Te4) at which the solenoid valve ( EV1; EV2; EV3; EV4) opens; - calculating a deviation ( Δt1;...; Δt4) between the actual opening delay ( De1;...; De4) and the theoretical opening delay ( Dt1;...; Dt4); and - if the calculated deviation is larger than a maximum acceptable deviation, generating a notification that the maximum acceptable deviation has been exceeded. - a step of inserting a blank into a mould; - at least one step of placing the interior of the blank into communication with at least one fluidic circuit ( 34; 40; 46; 52) by way of a solenoid valve ( EV1; EV2; EV3; EV4) associated with said circuit ( 34; 40; 46; 52); - at a preset point in time, called the solenoid-valve opening pip ( TEV1;...; TEV4), sending a command to open to said solenoid valve ( EV1; EV2; EV3; EV4), which possesses a theoretical opening delay ( Dt1;...; Dt4), i.e. the time that should theoretically pass between the opening pip and the point in time at which the solenoid valve ( EV1; EV2; EV3; EV4) actually opens; - calculating the actual opening delay ( De1;...; De4) of said solenoid valve ( EV1; EV2; EV3; EV4), i.e. the time passed between the opening pip and the actual point in time ( Te1;...; Te4) at which the solenoid valve ( EV1; EV2; EV3; EV4) opens; - calculating a deviation ( Δt1;...; Δt4) between the actual opening delay ( De1;...; De4) and the theoretical opening delay ( Dt1;...; Dt4); and - if the calculated deviation is larger than a maximum acceptable deviation, generating a notification that the maximum acceptable deviation has been exceeded.