mhurhangee/ep-ind-claims huggingface dataset:
A diverging/merging device for conveying equipment in which an arc-shaped path section at an end portion of another conveying path (3, 5) is tangentially connected in a middle of a straight path (1A, 1B) and an arc-shaped conveying device forming the arc-shaped path section is fixed at a constant height so that a conveyed object can be conveyed over an entire area of the arc-shaped path section at the same level as the straight path (1A, 1B) tangentially connected with the arc-shaped path section, wherein the straight path (1A, 1B) includes a constant length straight path section including an entirety of an overlapping area with the arc-shaped path section from a connection position with the arc-shaped path section, and a linear conveying device forming the constant length straight path section includes vertically moving conveyance means (17, 19) tilting in a vertical direction with respect to an end portion of the straight path (1A, 1B) tangentially connected with the arc-shaped path section, and when the vertically moving conveyance means (17, 19) are at a lower retracted position of tilting downward, the linear conveying device is located below a conveyed object conveyed by the arc-shaped conveying device, and when the vertically moving conveyance means (17, 19) are at an upper working position of tilting upward, a conveyed object conveyed by the linear conveying device passes above the arc-shaped conveying device, the linear conveying device including first vertically moving conveyance means (17, 19) tilting in the vertical direction with respect to one end of the constant length straight path section, characterized in that the linear conveying device includes a second vertically moving conveyance means tilting in the vertical direction with respect to the other end of the constant length straight path section, and when both the first and second vertically moving conveyance means (17, 19, 20) are at the upper working position, a conveying surface on the linear conveying device is configured to be deformed in a mountain shape in which an intermediate part is raised.
A transmission device comprising: circuitry configured to generate a physical layer frame, a time information descriptor is included in a preamble of the physical layer frame, the time information descriptor including a time information flag that indicates presence or absence of time information in the time information descriptor; and transmit the physical layer frame including the preamble and a payload, wherein the time information indicates a time of a predetermined position in a stream of the physical layer frame, wherein the time information included in the time information descriptor is compressed, wherein the time information is defined in Precise Time Protocol, wherein, in a 48-bit second field and a 32-bit nanosecond field included in the time information defined in the PTP, at least one high-order bit of the second field in the time information is deleted and at least one low-order bit of the nanosecond field in the time information is deleted to generate the compressed time information. generate a physical layer frame, a time information descriptor is included in a preamble of the physical layer frame, the time information descriptor including a time information flag that indicates presence or absence of time information in the time information descriptor; and transmit the physical layer frame including the preamble and a payload, wherein the time information indicates a time of a predetermined position in a stream of the physical layer frame, wherein the time information included in the time information descriptor is compressed, wherein the time information is defined in Precise Time Protocol, wherein, in a 48-bit second field and a 32-bit nanosecond field included in the time information defined in the PTP, at least one high-order bit of the second field in the time information is deleted and at least one low-order bit of the nanosecond field in the time information is deleted to generate the compressed time information.
A gas turbine engine comprising: a first carbon seal located against a first, outer shaft; a first carbon seal spring configured to provide force against the first carbon seal in a first axial direction and provide force against a mating hardware in a second axial direction opposite the first axial direction, the first carbon seal spring having an annular shape and circumferentially disposed around the first, outer shaft of the gas turbine engine; a second carbon seal located against a second, inner shaft; and a second carbon seal spring having the annular shape, circumferentially disposed around the second inner shaft of the gas turbine engine, and configured to provide force against the second carbon seal in the second axial direction and configured to provide force against the mating hardware in the first axial direction, wherein the first, outer shaft and the second, inner shaft have different diameters. a first carbon seal located against a first, outer shaft; a first carbon seal spring configured to provide force against the first carbon seal in a first axial direction and provide force against a mating hardware in a second axial direction opposite the first axial direction, the first carbon seal spring having an annular shape and circumferentially disposed around the first, outer shaft of the gas turbine engine; a second carbon seal located against a second, inner shaft; and a second carbon seal spring having the annular shape, circumferentially disposed around the second inner shaft of the gas turbine engine, and configured to provide force against the second carbon seal in the second axial direction and configured to provide force against the mating hardware in the first axial direction, wherein the first, outer shaft and the second, inner shaft have different diameters.
Method for sealing and inflating inflatable articles, in particular for sealing and inflating motor vehicle tyres, wherein, by means of a compressor which is driven preferably by means of an electric motor, a sealing and pumping pressure is generated, wherein, by means of the sealing and pumping pressure, via a valve and distributor device for sealant and compressed gas and via compressed-air and sealant hoses between valve and distributor device and an entry valve or an inlet nozzle of the inflatable article, a sealant situated in a sealant vessel connected to the valve and distributor device is conveyed into the inflatable article and, at the same time, the inflatable article is sealed and inflated to a predefined operating pressure, characterized in that, in or downstream of the entry valve/the inlet nozzle, the sealant is at least partially atomized to form an aerosol by virtue of the sealant or the sealant-air mixture being converted, in the entry valve or in the inlet nozzle, into a turbulent flow with a Reynolds number R e ≥ 2300, wherein the Reynolds number satisfies the following equation/inequation: R e = 2 D p ρ η 0 2 ⋅ e 2 K T 0 + ΔT ≥ 2300, which comprises the following parameters: T 0: ambient temperature, D: characteristic diameter of the entry valve or of the inlet nozzle, ΔT: difference between the temperature in the entry valve or in the inlet nozzle and the ambient temperature, p: conveying pressure of the sealant or sealant-air mixture, p: density of the sealant or sealant-air mixture, η 0 intrinsic viscosity of the sealant or sealant-air mixture, κ characteristic temperature of the sealant or sealant-air mixture. characterized in that, in or downstream of the entry valve/the inlet nozzle, the sealant is at least partially atomized to form an aerosol by virtue of the sealant or the sealant-air mixture being converted, in the entry valve or in the inlet nozzle, into a turbulent flow with a Reynolds number R e ≥ 2300, wherein the Reynolds number satisfies the following equation/inequation: R e = 2 D p ρ η 0 2 ⋅ e 2 K T 0 + ΔT ≥ 2300, which comprises the following parameters: T 0: ambient temperature, D: characteristic diameter of the entry valve or of the inlet nozzle, ΔT: difference between the temperature in the entry valve or in the inlet nozzle and the ambient temperature, p: conveying pressure of the sealant or sealant-air mixture, p: density of the sealant or sealant-air mixture, η 0 intrinsic viscosity of the sealant or sealant-air mixture, κ characteristic temperature of the sealant or sealant-air mixture. T 0: ambient temperature, D: characteristic diameter of the entry valve or of the inlet nozzle, ΔT: difference between the temperature in the entry valve or in the inlet nozzle and the ambient temperature, p: conveying pressure of the sealant or sealant-air mixture, p: density of the sealant or sealant-air mixture, η 0 intrinsic viscosity of the sealant or sealant-air mixture, κ characteristic temperature of the sealant or sealant-air mixture.
Composition comprising a) an antimicrobial agent, which is phenoxyethanol; and b) a polyamine, which is a polyethylenimine oligomer or polymer grafted with 0.01 to 100 parts by weight of ethylene oxide on 1 part by weight of the polyamine. a) an antimicrobial agent, which is phenoxyethanol; and b) a polyamine, which is a polyethylenimine oligomer or polymer grafted with 0.01 to 100 parts by weight of ethylene oxide on 1 part by weight of the polyamine.
A method for controlling an agricultural working machine which in particular serves to pick up and process a flow of harvested material, with a control device, with at least one operating unit and with a main drive for driving the operating unit, wherein the operating unit is driven from the main drive via a drive train, wherein the drive train or a portion of the drive train produces an actual transmission ratio which depends on the status of the drive train, wherein the drive train status is represented by a notional no-load transmission ratio, wherein under a load on the drive train, the drive for the operating unit is permanently associated with a transmission ratio delta (d) between the actual transmission ratio and the no-load transmission ratio, characterized in that a variation in the transmission ratio delta (d) and a variation in the load on the drive train are detected independently of one another by means of the control device and from this, an overload operation of the drive train is identified.
A method of fabrication of a spin filter device, the method comprising: • providing a wire made of Ni into a cryogenic chamber; • controllably elongating a region of said wire until identifying at least one predetermined elongation condition of the wire; • exposing at least said region of the wire to an oxygen environment, until the conductance-over-displacement trace deviates from that of a Ni contact, by introducing oxygen into the cryogenic chamber, towards the centre of the contact, via a heated capillary, thereby forming in said region an atomic scale junction comprising: ∘ at least one oxygen atom: or ∘ at least one atomic chain formed by the Ni and oxygen atoms interconnected between the Ni atoms; resulting in a selective p-d orbital hybridization between the p orbitals of the oxygen and the d orbitals of the Ni, wherein: prior to said oxygen exposure step, said chamber is kept at high vacuum and is cooled to 4.2K; and during said exposure, the capillary output is heated. • providing a wire made of Ni into a cryogenic chamber; • controllably elongating a region of said wire until identifying at least one predetermined elongation condition of the wire; • exposing at least said region of the wire to an oxygen environment, until the conductance-over-displacement trace deviates from that of a Ni contact, by introducing oxygen into the cryogenic chamber, towards the centre of the contact, via a heated capillary, thereby forming in said region an atomic scale junction comprising: ∘ at least one oxygen atom: or ∘ at least one atomic chain formed by the Ni and oxygen atoms interconnected between the Ni atoms; resulting in a selective p-d orbital hybridization between the p orbitals of the oxygen and the d orbitals of the Ni, wherein: prior to said oxygen exposure step, said chamber is kept at high vacuum and is cooled to 4.2K; and during said exposure, the capillary output is heated. ∘ at least one oxygen atom: or ∘ at least one atomic chain formed by the Ni and oxygen atoms interconnected between the Ni atoms;
An accessory to be attached to a game controller that includes a main section and a rail member provided on the main section, where the rail member includes a protruding portion provided on one end side of the rail member and a first terminal is on the protruding portion, the accessory comprising: a slide member configured to slidably engage with the rail member of the game controller in a slide direction from a first side toward a second side of the accessory; wherein the slide member comprises: a groove formed by a bottom surface of the slide member and side surfaces that are connected respectively to opposite sides of the bottom surface; two top surface portions configured to protrude from the respective side surfaces and each having a surface facing the bottom surface of the slide member; a facing portion having a facing surface in an end portion on the second side of the slide member, the facing surface facing the bottom surface of the slide member; and a second terminal on the facing surface, and when the protruding portion of the rail member is inserted between the bottom surface of the slide member and the facing surface, the second terminal comes into contact with the first terminal so that the second terminal and the first terminal are electrically connected to each other. a slide member configured to slidably engage with the rail member of the game controller in a slide direction from a first side toward a second side of the accessory; wherein the slide member comprises: a groove formed by a bottom surface of the slide member and side surfaces that are connected respectively to opposite sides of the bottom surface; two top surface portions configured to protrude from the respective side surfaces and each having a surface facing the bottom surface of the slide member; a facing portion having a facing surface in an end portion on the second side of the slide member, the facing surface facing the bottom surface of the slide member; and a second terminal on the facing surface, and a groove formed by a bottom surface of the slide member and side surfaces that are connected respectively to opposite sides of the bottom surface; two top surface portions configured to protrude from the respective side surfaces and each having a surface facing the bottom surface of the slide member; a facing portion having a facing surface in an end portion on the second side of the slide member, the facing surface facing the bottom surface of the slide member; and a second terminal on the facing surface, and when the protruding portion of the rail member is inserted between the bottom surface of the slide member and the facing surface, the second terminal comes into contact with the first terminal so that the second terminal and the first terminal are electrically connected to each other.
An apparatus for separating fluids, the apparatus comprising a drive motor, and further comprises: a spherical exterior surface, characterised in that, a center point of said apparatus is positioned equidistant from all points on said spherical exterior surface; said apparatus held by a fixture; said spherical exterior surface having a sinusoidal track therein, wherein the drive motor is engaged with said sinusoidal track whereby said apparatus rotates with sinusoidal motion about said center point. a spherical exterior surface, characterised in that, a center point of said apparatus is positioned equidistant from all points on said spherical exterior surface; said apparatus held by a fixture; said spherical exterior surface having a sinusoidal track therein, wherein the drive motor is engaged with said sinusoidal track whereby said apparatus rotates with sinusoidal motion about said center point.
Weighing system, comprising - a base having a vertically extending base rear wall and a base floor projecting horizontally forward from the base rear wall, - a horizontal parallel link assembly having rear joints designed as horizontally extending material thin points and front joints likewise designed as horizontally extending material thin points, - a load receiver hinged to the base via said parallel link assembly, wherein the parallel link assembly is hinged to the base rear wall in a rear hinge plane by means of said rear joints and is hinged to the load receiver in a front hinge plane by means of said front joints, - a lever bearing designed as a vertically oriented material thin point, - a horizontally extending transmission lever having a front, short lever arm and a rear, long lever arm, wherein the transmission lever is mounted on the base by means of said lever bearing, which at one side is positioned between the lever arms (122, 128) on the transmission lever and at the other side is positioned on the base floor, and - a vertically extending coupling strip, wherein weight forces acting on the load receiver, which are deflected via said coupling strip, can be introduced into the short lever arm as tensile forces, and wherein projecting forward from the load receiver is a cantilever arm, which at its rear end is rigidly connected to the load receiver and at its front end has a mechanical interface for fixing a weighing goods support, characterized in that the lever bearing is arranged in front of the load receiver in the area below the cantilever arm. - a base having a vertically extending base rear wall and a base floor projecting horizontally forward from the base rear wall, - a horizontal parallel link assembly having rear joints designed as horizontally extending material thin points and front joints likewise designed as horizontally extending material thin points, - a load receiver hinged to the base via said parallel link assembly, wherein the parallel link assembly is hinged to the base rear wall in a rear hinge plane by means of said rear joints and is hinged to the load receiver in a front hinge plane by means of said front joints, - a lever bearing designed as a vertically oriented material thin point, - a horizontally extending transmission lever having a front, short lever arm and a rear, long lever arm, wherein the transmission lever is mounted on the base by means of said lever bearing, which at one side is positioned between the lever arms (122, 128) on the transmission lever and at the other side is positioned on the base floor, and - a vertically extending coupling strip, wherein weight forces acting on the load receiver, which are deflected via said coupling strip, can be introduced into the short lever arm as tensile forces, and wherein projecting forward from the load receiver is a cantilever arm, which at its rear end is rigidly connected to the load receiver and at its front end has a mechanical interface for fixing a weighing goods support, characterized in that the lever bearing is arranged in front of the load receiver in the area below the cantilever arm.
A board production line having multiple work devices arranged to transfer a board from upstream to downstream and perform a predetermined operation on the board, the board production line comprising: a shared folder having storage areas configured to store board-related information, the storage areas being multiply divided according to the number of the work devices, wherein the shared folder is a memory device, characterized in that the shared folder is further configured to transfer the board-related information among the storage areas, in conjunction with transferring the board, with a first work device (21-23,25,26) capable of accessing the storage areas among the multiple work devices, and the board production line further comprises a management proxy section configured to access the shared folder in place of a second work device which cannot access the storage areas, and configured to manage the board-related information so that the board-related information can be transferred among the storage areas. a shared folder having storage areas configured to store board-related information, the storage areas being multiply divided according to the number of the work devices, wherein the shared folder is a memory device, characterized in that the shared folder is further configured to transfer the board-related information among the storage areas, in conjunction with transferring the board, with a first work device (21-23,25,26) capable of accessing the storage areas among the multiple work devices, and the board production line further comprises a management proxy section configured to access the shared folder in place of a second work device which cannot access the storage areas, and configured to manage the board-related information so that the board-related information can be transferred among the storage areas.
A symmetric bispecific antibody of the class IgG4 comprising two heavy chains which each comprise a variable domain, C H 1 domain and a hinge region, wherein in each heavy chain: the cysteine at position 127, numbered according to the Kabat numbering system, in the C H 1 domain which forms an inter-chain disulphide bond with a cysteine in a light chain is substituted with a non-thiol containing amino acid; and one or more of the amino acids positioned in the upper hinge region is substituted with cysteine, wherein the constant region sequence of each heavy chain is similar or identical and the variable region in each heavy chain is different. the cysteine at position 127, numbered according to the Kabat numbering system, in the C H 1 domain which forms an inter-chain disulphide bond with a cysteine in a light chain is substituted with a non-thiol containing amino acid; and one or more of the amino acids positioned in the upper hinge region is substituted with cysteine, wherein the constant region sequence of each heavy chain is similar or identical and the variable region in each heavy chain is different.
A method of acquiring in-vivo an image of interior parts of the human body or an image based quantification of blood flow conditions, using an imaging system and comprising the steps of positioning the body relatively to the imaging system, applying a respiratory resistance device to the respiratory system of the body, and performing an image acquisition step during an inhalation phase, during which the body provides suction against a resistance as provided by the respiratory resistance device, and/or performing an image acquisition step during an exhalation phase, during which the body provides exhalation against a resistance as provided by the respiratory resistance device, characterised respectively by either a contrast fluid or dye being administered into a preestablished venous access in an upper or a lower extremity of the body before and/or during the inhalation phase or by a contrast fluid or dye being administered into a preestablished venous access in a lower extremity of the body before and/or during the exhalation phase.