mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving, via a processor, a video feed of a person performing a body communication; determining, via the processor, whether the body communication is indicative of an emergency situation; translating, via the processor, the body communication, to a text or audio communication; transmitting, via the processor, the video feed and the text or audio communication to a receiving monitoring station; receiving, via the processor, a responsive video feed of a responsive body communication and a responsive text or audio communication indicative of an instruction related to the emergency situation; and outputting, via the processor, the responsive video feed of the responsive body communication and the responsive text or audio communication via an operatively connected output processor. receiving, via a processor, a video feed of a person performing a body communication; determining, via the processor, whether the body communication is indicative of an emergency situation; translating, via the processor, the body communication, to a text or audio communication; transmitting, via the processor, the video feed and the text or audio communication to a receiving monitoring station; receiving, via the processor, a responsive video feed of a responsive body communication and a responsive text or audio communication indicative of an instruction related to the emergency situation; and outputting, via the processor, the responsive video feed of the responsive body communication and the responsive text or audio communication via an operatively connected output processor.
A safety system for a counterbalanced lift truck comprising a control unit which comprises a control encoder connected to a steering wheel - steering column unit of a lift truck steering device, a controller which controls actuator means for directing the truck according to the rotation imparted to the steering wheel - steering column unit by an operator, based on signals supplied to the controller by the encoder, means for opposing rotation of the steering wheel - steering column unit, sensor means for instantaneous identification of the weight of the load lifted, means for instantaneous measurement of the truck speed of movement, means for instantaneous identification of the steering angle, a device for instantaneous identification of the position of the truck centre of gravity and a logic and calculation unit designed to process the data relative to the steering angle, the position of the centre of gravity, the speed of movement and the total weight of the truck so as to activate the opposing means when the ratio between the tipping moment (M r) and the stabilising moment (M s) is equal to a predetermined value; the safety system being characterised in that the device for identification of the position of the truck centre of gravity comprises: a load cell for measuring the weight of the load on the truck rear axle, a pressure switch connected to a truck hydraulic system for detecting the weight of the load lifted by the truck, a height measuring device for measuring the height reached by the fork and a potentiometer for measuring the mast swinging angle.
A nose knife comprising a handle, a shank, and a blade, wherein the cross-section of the handle has a circular shape for being rotated around the longitudinal axis of the handle; the shank comprises a straight part connected straight to the handle along the same axis of the handle, and a curved part integrally connected to the front end of the straight part; the blade is provided at the front end of the curved part, and the direction of a blade tip of the blade is 65 degrees to 75 degrees inclusive to the axis line of the straight part; and the blade is provided with cutting edges in two directions from the blade tip, wherein the nose knife is configured to be rotated around the longitudinal axis of the handle so as to make an incision, and the length of the straight part is 50 mm to 60 mm inclusive, and the blade tip of the blade is located 10 mm to 20 mm inclusive from the central axial line of the straight part in a perpendicular direction to the central axial line. the cross-section of the handle has a circular shape for being rotated around the longitudinal axis of the handle; the shank comprises a straight part connected straight to the handle along the same axis of the handle, and a curved part integrally connected to the front end of the straight part; the blade is provided at the front end of the curved part, and the direction of a blade tip of the blade is 65 degrees to 75 degrees inclusive to the axis line of the straight part; and the blade is provided with cutting edges in two directions from the blade tip, wherein the nose knife is configured to be rotated around the longitudinal axis of the handle so as to make an incision, and the length of the straight part is 50 mm to 60 mm inclusive, and the blade tip of the blade is located 10 mm to 20 mm inclusive from the central axial line of the straight part in a perpendicular direction to the central axial line.
An electrically conductive wire, comprising: a conductor body defining a longitudinal axis, wherein the conductor body includes: (i) an isotropically conductive matrix material, wherein the isotropically conductive matrix material consists essentially of copper; and (ii) a plurality of anisotropically conductive particles interspersed within the isotropically conductive matrix material, wherein the plurality of anisotropically conductive particles consists essentially of a plurality of intercalated graphite domains that includes an intercalated bromine dopant, wherein each anisotropically conductive particle in the plurality of anisotropically conductive particles defines a respective axis of enhanced electrical conductivity, and further wherein the respective axis of enhanced electrical conductivity of each of the plurality of anisotropically conductive particles is at least substantially aligned with the longitudinal axis 102 of the conductor body; and a dielectric coating that covers an external surface of the conductor body. a conductor body defining a longitudinal axis, wherein the conductor body includes: (i) an isotropically conductive matrix material, wherein the isotropically conductive matrix material consists essentially of copper; and (ii) a plurality of anisotropically conductive particles interspersed within the isotropically conductive matrix material, wherein the plurality of anisotropically conductive particles consists essentially of a plurality of intercalated graphite domains that includes an intercalated bromine dopant, wherein each anisotropically conductive particle in the plurality of anisotropically conductive particles defines a respective axis of enhanced electrical conductivity, and further wherein the respective axis of enhanced electrical conductivity of each of the plurality of anisotropically conductive particles is at least substantially aligned with the longitudinal axis 102 of the conductor body; and (i) an isotropically conductive matrix material, wherein the isotropically conductive matrix material consists essentially of copper; and (ii) a plurality of anisotropically conductive particles interspersed within the isotropically conductive matrix material, wherein the plurality of anisotropically conductive particles consists essentially of a plurality of intercalated graphite domains that includes an intercalated bromine dopant, wherein each anisotropically conductive particle in the plurality of anisotropically conductive particles defines a respective axis of enhanced electrical conductivity, and further wherein the respective axis of enhanced electrical conductivity of each of the plurality of anisotropically conductive particles is at least substantially aligned with the longitudinal axis 102 of the conductor body; and a dielectric coating that covers an external surface of the conductor body.
A radome assembly comprising, a radome member; a heat sink member; a seal member disposed between the radome member and the heat sink member; characterised in that the radome assembly further comprises: a frame assembly configured to compress the seal member between the radome member and the heat sink member, wherein the frame assembly comprises: a fixation member configured to be fixedly engaged with the heat sink member; and an arm member, the arm member configured to engage the radome member to compress the seal member between the radome member and the heat sink member when the fixation member is engaged with the heat sink member, and wherein engagement of the fixation member with the heat sink member in a compressed state of the seal member forms a gap between the radome member and the heat sink member. a fixation member configured to be fixedly engaged with the heat sink member; and an arm member, the arm member configured to engage the radome member to compress the seal member between the radome member and the heat sink member when the fixation member is engaged with the heat sink member, and wherein engagement of the fixation member with the heat sink member in a compressed state of the seal member forms a gap between the radome member and the heat sink member.
An ion inlet assembly for connecting to a mass spectrometer housing comprising: a gas cone assembly having a gas cone orifice to allow ions to pass therethrough, wherein said gas cone assembly is connectable to a gas supply such that gas is arranged to flow, in use, towards said gas cone orifice; and a sampling limiting body in the form of a nickel disk having a sampling orifice, wherein said disk and said sampling orifice are made or formed by an electroforming process, wherein said sampling limiting body is mounted beneath the gas cone assembly to the mass spectrometer housing, and wherein said sampling limiting body is arranged to sit upon the mass spectrometer housing and to be removably held in position by the gas cone assembly. a gas cone assembly having a gas cone orifice to allow ions to pass therethrough, wherein said gas cone assembly is connectable to a gas supply such that gas is arranged to flow, in use, towards said gas cone orifice; and a sampling limiting body in the form of a nickel disk having a sampling orifice, wherein said disk and said sampling orifice are made or formed by an electroforming process, wherein said sampling limiting body is mounted beneath the gas cone assembly to the mass spectrometer housing, and wherein said sampling limiting body is arranged to sit upon the mass spectrometer housing and to be removably held in position by the gas cone assembly.
A fluid operated actuator, comprising: a body forming a piston bore; a piston movable within the piston bore; a valve unit coupled to the body and including a fluid inlet port, a fluid exhaust port, and a valve member configured to selectively open a fluid flow path between the fluid inlet port and the piston bore and between the exhaust port and the piston bore; a control unit coupled to the body and the valve unit and including: a pilot input port in fluid communication with the fluid inlet port; first and second pilot output ports (317b, 317c) in fluid communication with the valve member; and a pilot valve adapted to open a fluid flow path between the pilot input port and one or more of the first and second pilot output ports (317b, 317c) in order to actuate the valve member, characterized in that the control unit is positioned between the body and the valve unit and provides a fluid interface between the valve unit 105 and the piston bore 201. a body forming a piston bore; a piston movable within the piston bore; a valve unit coupled to the body and including a fluid inlet port, a fluid exhaust port, and a valve member configured to selectively open a fluid flow path between the fluid inlet port and the piston bore and between the exhaust port and the piston bore; a control unit coupled to the body and the valve unit and including: a pilot input port in fluid communication with the fluid inlet port; first and second pilot output ports (317b, 317c) in fluid communication with the valve member; and a pilot valve adapted to open a fluid flow path between the pilot input port and one or more of the first and second pilot output ports (317b, 317c) in order to actuate the valve member, a pilot input port in fluid communication with the fluid inlet port; first and second pilot output ports (317b, 317c) in fluid communication with the valve member; and a pilot valve adapted to open a fluid flow path between the pilot input port and one or more of the first and second pilot output ports (317b, 317c) in order to actuate the valve member, characterized in that the control unit is positioned between the body and the valve unit and provides a fluid interface between the valve unit 105 and the piston bore 201.
A method of preparing a wort with an increased level of free amino nitrogen comprising: a) preparing a mash from a grist comprising malt and/or adjunct; and b) adding a protease having at least 80% sequence identity to the polypeptide of SEQ ID NO: 1. a) preparing a mash from a grist comprising malt and/or adjunct; and b) adding a protease having at least 80% sequence identity to the polypeptide of SEQ ID NO: 1.
A head restraint for a vehicle seat having a head restraint body and at least one retaining element, wherein a cover is provided at least partially on the outer face of the head restraint body, said cover forming a surface of the head restraint, wherein the cover is formed from at least one front portion (3.1) and one rear portion (3.2), which may be coupled together in the manner of a balloon or bag by means of at least one connecting seam, characterized in that a profile element is incorporated non-positively and/or positively at least partially into the at least one connecting seam, forming a shoulder, projection and/or an edge on the surface of the head restraint and that the profile element is configured to be at least partially flexible.
A titania-doped quartz glass having a surface where EUV light is reflected, wherein an angle (θ) included between a straight line connecting an origin at the center of the reflecting surface to a birefringence measurement point and a fast axis of birefringence at the measurement point has an average value of more than 45 degrees.
A method for quantifying and/or detecting a target molecule, comprising the steps of: 1) providing a target molecule-dependent volume-amplified entity comprising i) a target molecule bound to a passive particle functionalised with a secondary capturing molecule, ii) a Rolling Circle Amplified product formed through a target-dependent DNA circularization reaction, or iii) a RCA product formed through a target-dependent DNA circularization reaction and bound to a,passive particle functionalised with a secondary capturing molecule; 2) allowing a magnetic nanoparticle, functionalized with a primary capturing molecule, to bind to said volume-amplified entity via said primary capturing molecule; and 3) quantifying and/or detecting the target molecule by measuring the change in dynamic magnetic response of the magnetic nanoparticle caused by the increase in hydrodynamic volume of said magnetic nanoparticle, wherein the increase in hydrodynamic volume of the magnetic nanoparticle results from binding with the volume-amplified entity. 1) providing a target molecule-dependent volume-amplified entity comprising i) a target molecule bound to a passive particle functionalised with a secondary capturing molecule, ii) a Rolling Circle Amplified product formed through a target-dependent DNA circularization reaction, or iii) a RCA product formed through a target-dependent DNA circularization reaction and bound to a,passive particle functionalised with a secondary capturing molecule; 2) allowing a magnetic nanoparticle, functionalized with a primary capturing molecule, to bind to said volume-amplified entity via said primary capturing molecule; and 3) quantifying and/or detecting the target molecule by measuring the change in dynamic magnetic response of the magnetic nanoparticle caused by the increase in hydrodynamic volume of said magnetic nanoparticle, wherein the increase in hydrodynamic volume of the magnetic nanoparticle results from binding with the volume-amplified entity.
An apparatus for adapting an approximately natural motion sequence of a leg to a rotational movement, comprising: a fixed bearing, a pedal rod having a first point of articulation, which is articulated at the fixed bearing, and a second point of articulation, which is able to perform a rotational movement around the fixed bearing, a foot shell for receiving the foot of a patient, and a strip connected to the foot shell at a first endpoint, wherein the apparatus has a cantilever (14, 16), the cantilever (14, 16) comprising a first and a second point of articulation (1, 2), the first point of articulation being articulated at the strip and the second point of articulation being articulated at the pedal rod, characterised in that the apparatus has a floating bearing, wherein a first connection exists between the floating bearing and the fixed bearing and wherein a second connection exists between the second point of articulation of the pedal rod and the floating bearing. a fixed bearing, a pedal rod having a first point of articulation, which is articulated at the fixed bearing, and a second point of articulation, which is able to perform a rotational movement around the fixed bearing, a foot shell for receiving the foot of a patient, and a strip connected to the foot shell at a first endpoint, wherein the apparatus has a cantilever (14, 16), the cantilever (14, 16) comprising a first and a second point of articulation (1, 2), the first point of articulation being articulated at the strip and the second point of articulation being articulated at the pedal rod, characterised in that the apparatus has a floating bearing, wherein a first connection exists between the floating bearing and the fixed bearing and wherein a second connection exists between the second point of articulation of the pedal rod and the floating bearing.
A method for connecting at least two substrates which comprise electrical, semiconducting, mechanical and/or optical components, comprising the steps of providing a first substrate (2, 102, 302, 402, 502); producing a joining element in the form of a frame (10, 310, 410, 510, 610) made of glass on a first surface of the first substrate (2, 102, 302, 402, 502), wherein glass is vapour-deposited and the joining element bonds to the first substrate (2, 102, 302, 402, 502) during deposition, and wherein conductive traces (430, 530) are disposed on the first surface of the first substrate (2, 102, 302, 402, 502) and the joining element is vapour-deposited onto the first surface so as to at least partially cover the conductive traces (430, 530) and so that the conductive traces (430, 530) extend through the joining element laterally or vertically and hermetically extend through the frame (10, 310, 410, 510, 610); providing a second substrate (12, 212, 312); and connecting the first and second substrates by the joining element thereby forming a cavity (16, 316, 616) between the first and second substrates (12, 212, 312) and inside the frame (10, 310, 410, 510, 610), which cavity is hermetically sealed; and wherein the first or second substrate is a glass substrate. providing a first substrate (2, 102, 302, 402, 502); producing a joining element in the form of a frame (10, 310, 410, 510, 610) made of glass on a first surface of the first substrate (2, 102, 302, 402, 502), wherein glass is vapour-deposited and the joining element bonds to the first substrate (2, 102, 302, 402, 502) during deposition, and wherein conductive traces (430, 530) are disposed on the first surface of the first substrate (2, 102, 302, 402, 502) and the joining element is vapour-deposited onto the first surface so as to at least partially cover the conductive traces (430, 530) and so that the conductive traces (430, 530) extend through the joining element laterally or vertically and hermetically extend through the frame (10, 310, 410, 510, 610); providing a second substrate (12, 212, 312); and connecting the first and second substrates by the joining element thereby forming a cavity (16, 316, 616) between the first and second substrates (12, 212, 312) and inside the frame (10, 310, 410, 510, 610), which cavity is hermetically sealed; and wherein the first or second substrate is a glass substrate.
A lithographic printing plate precursor comprising an image-recording layer and a support, wherein the image-recording layer comprises a radical generator, a polymerizable compound, a reversible addition fragmentation chain transfer agent and a sensitizing dye, wherein the reversible addition fragmentation chain transfer agent is a compound represented by one of the following formulae, and: wherein Z represents a group selected from an alkyl group, an aryl group and an alkylthio group, and each of these groups may have a substituent, R represents a group selected from an alkyl group and an alkylthio group, and each of these groups may have a substituent, p represents an integer from 2 to 6, m represents an integer from 2 to 4, R' represents a p-valent connecting group composed of combination of the following structural units, and Z' represents an m-valent connecting group composed of at least one benzene ring:
A brushing device comprising: a motor including an eccentric drive shaft; an output shaft operably connected to the motor; and a power train assembly coupled between the eccentric drive shaft and the output shaft, wherein the power train assembly converts rotation of the eccentric drive shaft into an oscillation movement of the output shaft; wherein the power train assembly further comprises a rocker arm coupled between the eccentric drive shaft and the output shaft, wherein movement of the rocker arm is constrained to convert rotation of the eccentric drive shaft to oscillating movement of the output shaft; and wherein the power train assembly further comprises an eccentric coupled between the eccentric drive shaft and the rocker arm. a motor including an eccentric drive shaft; an output shaft operably connected to the motor; and a power train assembly coupled between the eccentric drive shaft and the output shaft, wherein the power train assembly converts rotation of the eccentric drive shaft into an oscillation movement of the output shaft; wherein the power train assembly further comprises a rocker arm coupled between the eccentric drive shaft and the output shaft, wherein movement of the rocker arm is constrained to convert rotation of the eccentric drive shaft to oscillating movement of the output shaft; and wherein the power train assembly further comprises an eccentric coupled between the eccentric drive shaft and the rocker arm.
An injectable depot composition, comprising: - a drug which is risperidone and/or 9-OH-risperidone in any combination thereof; - at least a biocompatible polymer which is a copolymer based on lactic and glycolic acid having a monomer ratio of lactic to glycolic acid in the range from 50:50 to 75:25, and - at least a water-miscible solvent with a dipole moment about 3.9-4.3 D, wherein the viscosity of the solution comprising the polymer and the solvent is between 0.5 and 3.0 Pa.s and the solvent/drug mass ratio is between 10 and 4, characterised in that the drug/polymer mass ratio is between 25 and 35% expressed as the weight percentage of the drug with respect of the drug plus polymer, and in that the particle size distribution of the drug is: - less than 10% particles smaller than 10 microns; - less than 10% particles larger than 225 microns, and - a d0.5 value in the range of 60-130 microns. - a drug which is risperidone and/or 9-OH-risperidone in any combination thereof; - at least a biocompatible polymer which is a copolymer based on lactic and glycolic acid having a monomer ratio of lactic to glycolic acid in the range from 50:50 to 75:25, and - at least a water-miscible solvent with a dipole moment about 3.9-4.3 D, - less than 10% particles smaller than 10 microns; - less than 10% particles larger than 225 microns, and - a d0.5 value in the range of 60-130 microns.