mhurhangee/ep-ind-claims huggingface dataset:
A paint nozzle, which can be inserted into a bell cup of a rotary atomizer and, when in the inserted state, forms an annular gap between the paint nozzle and a distributor disc receptacle of the bell cup, with a) a common rinsing agent channel which runs in the paint nozzle for conducting a rinsing agent for rinsing the bell cup, b) a first rinsing agent outlet, which is supplied with the rinsing agent by the common rinsing agent channel and is directed essentially axially forwards onto a distributor disc of the bell cup, c) a second rinsing agent outlet, which is supplied with the rinsing agent by the common rinsing agent channel, d) a distal nozzle section with an essentially cylindrical outer contour, e) a proximal nozzle section with an essentially cylindrical outer contour, and f) a central nozzle section, which is arranged in the axial direction between the proximal nozzle section and the distal nozzle section and tapers conically in the direction of the distal nozzle section, wherein the transition from the central nozzle section to the distal nozzle section is essentially step-free, characterized in that g) the second rinsing agent outlet, when in the mounted state, opens into the annular gap surrounding the conical nozzel section between the distributor disc receptacle and the paint nozzle in order to clean the annular gap with the rinsing agent. a) a common rinsing agent channel which runs in the paint nozzle for conducting a rinsing agent for rinsing the bell cup, b) a first rinsing agent outlet, which is supplied with the rinsing agent by the common rinsing agent channel and is directed essentially axially forwards onto a distributor disc of the bell cup, c) a second rinsing agent outlet, which is supplied with the rinsing agent by the common rinsing agent channel, d) a distal nozzle section with an essentially cylindrical outer contour, e) a proximal nozzle section with an essentially cylindrical outer contour, and f) a central nozzle section, which is arranged in the axial direction between the proximal nozzle section and the distal nozzle section and tapers conically in the direction of the distal nozzle section, wherein the transition from the central nozzle section to the distal nozzle section is essentially step-free, characterized in that g) the second rinsing agent outlet, when in the mounted state, opens into the annular gap surrounding the conical nozzel section between the distributor disc receptacle and the paint nozzle in order to clean the annular gap with the rinsing agent.
Use of a fungicidal composition comprising a paraffinic oil-in-water emulsion, the paraffinic oil-in-water emulsion comprising a paraffinic oil, an emulsifier, a pigment and a silicone surfactant, for controlling infection of a crop plant by a fungal pathogen, wherein the pigment is a copper phthalocyanine and wherein: the ratio of the paraffinic oil to the pigment is from 5:1 to 100:1; the weight ratio of the paraffinic oil to the emulsifier is from 10:1 to 500:1; and the weight ratio of the pigment to the silicone surfactant is from 2:1 to 50:1. the ratio of the paraffinic oil to the pigment is from 5:1 to 100:1; the weight ratio of the paraffinic oil to the emulsifier is from 10:1 to 500:1; and the weight ratio of the pigment to the silicone surfactant is from 2:1 to 50:1.
A method for the prevention and/or treatment of growth and/or infestation of a fungus on a wallboard comprising treating said wallboard with a fungicidally effective amount of a synergistic composition comprising: (a) fludioxonil and (b) a fungicide selected from the group consisting of propiconazole; cyproconazole; and difenoconazole.
An insulated shaft joint comprising a rotational member and a shaft, said insulated shaft joint electrically insulating said rotational member from an end section of said shaft to which the rotational member is connected, the insulated shaft joint comprising - a plurality of first grooves arranged in an outer surface of the end section of the shaft and extending in an axial direction of the shaft, and - a plurality of electrically insulating members, characterised in that an annular electrically insulating cage is arranged circumferentially around the plurality of first grooves, the insulating cage comprising one or more through-going openings arranged circumferentially, the through-going openings being shaped and dimensioned so that they are adapted to surround and guide the insulating members wherein - the rotational member is arranged circumferentially around the annular electrically insulating cage, the rotational member comprising a plurality of second grooves arranged in an inner surface of the rotational member and extending in an axial direction of the shaft, - the through-going openings in the insulating cage are arranged aligned with the plurality of first grooves and the plurality of second grooves, and - the insulating members are arranged in the through-going openings of the insulating cage and in the first and second grooves, so as to be adapted to transfer torque from the shaft to the rotational member via the insulating members. - a plurality of first grooves arranged in an outer surface of the end section of the shaft and extending in an axial direction of the shaft, and - a plurality of electrically insulating members, - the rotational member is arranged circumferentially around the annular electrically insulating cage, the rotational member comprising a plurality of second grooves arranged in an inner surface of the rotational member and extending in an axial direction of the shaft, - the through-going openings in the insulating cage are arranged aligned with the plurality of first grooves and the plurality of second grooves, and - the insulating members are arranged in the through-going openings of the insulating cage and in the first and second grooves, so as to be adapted to transfer torque from the shaft to the rotational member via the insulating members.
A thin film transistor (100, 200, 300, 400) comprising: an oxide semiconductor layer, the oxide semiconductor layer including a channel portion, a first channel connecting portion connected to a first end of the channel portion, and a second channel connecting portion connected to a second end of the channel portion that is opposite the first end of the channel portion; a gate insulating film on the channel portion of the oxide semiconductor layer; a gate electrode on the gate insulating film; a source electrode connected with the first channel connecting portion; and a drain electrode spaced apart from the source electrode, the drain electrode connected with the second channel connecting portion, wherein a thickness of the second channel connecting portion is different from a thickness of the first channel connecting portion, and the second end of the channel portion has a same thickness as the thickness of the second channel connecting portion, and wherein a part of the channel portion between the first end of the channel portion and the second end of the channel portion has a thickness that is larger than the thickness of the first channel connecting portion and smaller than the thickness of the second channel connecting portion. an oxide semiconductor layer, the oxide semiconductor layer including a channel portion, a first channel connecting portion connected to a first end of the channel portion, and a second channel connecting portion connected to a second end of the channel portion that is opposite the first end of the channel portion; a gate insulating film on the channel portion of the oxide semiconductor layer; a gate electrode on the gate insulating film; a source electrode connected with the first channel connecting portion; and a drain electrode spaced apart from the source electrode, the drain electrode connected with the second channel connecting portion, wherein a thickness of the second channel connecting portion is different from a thickness of the first channel connecting portion, and the second end of the channel portion has a same thickness as the thickness of the second channel connecting portion, and wherein a part of the channel portion between the first end of the channel portion and the second end of the channel portion has a thickness that is larger than the thickness of the first channel connecting portion and smaller than the thickness of the second channel connecting portion.
A system for transferring graphical representations on an object by sublimation, said system comprising: - a first loading device configured to load on a work plane a support comprising at least one graphical representation to be transferred, - a second loading device configured to load, in use, the object over said support on said work plane, - a sublimation apparatus comprising - a catenary, and - a plurality of pendulum components hooked to the catenary, each component comprising ends and jaws (10A-10B) configured to cooperate with the work plane so that, by suction, said support wraps said object, is made to adhere to said object and is moved together with the object by way of the catenary in an oven arranged for transferring the support graphical representation from the support to the object, characterized in that said work plane comprises - a plurality of pliers comprising suction type ends arranged longitudinally to the work plane and configured to wrap the object by way of the support and make the support adhere to said ends of said pendulum component. - a first loading device configured to load on a work plane a support comprising at least one graphical representation to be transferred, - a second loading device configured to load, in use, the object over said support on said work plane, - a sublimation apparatus comprising - a catenary, and - a plurality of pendulum components hooked to the catenary, each component comprising ends and jaws (10A-10B) configured to cooperate with the work plane so that, by suction, said support wraps said object, is made to adhere to said object and is moved together with the object by way of the catenary in an oven arranged for transferring the support graphical representation from the support to the object, characterized in that said work plane comprises - a catenary, and - a plurality of pendulum components hooked to the catenary, each component comprising ends and jaws (10A-10B) configured to cooperate with the work plane so that, by suction, said support wraps said object, is made to adhere to said object and is moved together with the object by way of the catenary in an oven arranged for transferring the support graphical representation from the support to the object, characterized in that said work plane comprises - a plurality of pliers comprising suction type ends arranged longitudinally to the work plane and configured to wrap the object by way of the support and make the support adhere to said ends of said pendulum component.
A left atrial pressure measurement method comprising: measuring a first index value (S T) that indicates performance of a right ventricle; measuring a right atrial pressure non-invasively; measuring a second index value (S M) that indicates performance of a left ventricle; characterized in that the left atrial pressure measurement method further comprises calculating the left atrial pressure using the first index value (S T), the second index value (S M), and the measured right atrial pressure, the measuring of the first index value (S T) including measuring the velocity of the tricuspid annulus due to pulsation using ultrasonic waves to determine the first index value (S T), the measuring of the second index value (S M) including measuring the velocity of the mitral annulus due to pulsation using ultrasonic waves to determine the second index value (S M), the calculating of the left atrial pressure including: calculating a relative ratio of the first index value (S T) to the second index value (S M); and calculating the left atrial pressure using the relative ratio and the right atrial pressure.
An electricity generating backpack, comprising: shoulder straps; means for accepting a load to be carried by said backpack; a suspension system having a first portion connected directly or indirectly to said shoulder straps and a second portion connected to said load accepting means, said suspension system incorporating a compliant mechanism that permits said second portion of said suspension system and said load accepting means to be displaced relative to said first portion of said suspension system as a result of a gait of a wearer of the backpack or the application of force to the first or second portions of the suspension system; a generator that converts a mechanical displacement of said first portion of said suspension system with respect to said second portion of said suspension system into electrical energy; an energy storage device; and a load emulating circuit that manages the storage of electrical energy in said energy storage device and/or the discharge of generated electrical energy to minimize overdamping and underdamping of said load by said suspension system; the electricity generating backpack being characterised in that said load emulating circuit comprises a full-bridge diode rectifier circuit having output terminals connected to input terminals of a DC/DC converter that emulates a desired resistive load to said generator. shoulder straps; means for accepting a load to be carried by said backpack; a suspension system having a first portion connected directly or indirectly to said shoulder straps and a second portion connected to said load accepting means, said suspension system incorporating a compliant mechanism that permits said second portion of said suspension system and said load accepting means to be displaced relative to said first portion of said suspension system as a result of a gait of a wearer of the backpack or the application of force to the first or second portions of the suspension system; a generator that converts a mechanical displacement of said first portion of said suspension system with respect to said second portion of said suspension system into electrical energy; an energy storage device; and a load emulating circuit that manages the storage of electrical energy in said energy storage device and/or the discharge of generated electrical energy to minimize overdamping and underdamping of said load by said suspension system; the electricity generating backpack being characterised in that said load emulating circuit comprises a full-bridge diode rectifier circuit having output terminals connected to input terminals of a DC/DC converter that emulates a desired resistive load to said generator.
A data transmission method, comprising: receiving, by a first terminal apparatus, first data and first identification information of the first data from a first network apparatus, wherein the first identification information is used to identify the first data; receiving, by the first terminal apparatus, second data and second identification information of the second data from a second terminal apparatus, wherein the second identification information is used to identify the second data, and the first identification information and the second identification information are further used to determine whether the first data and the second data belong to same data; and determining, by the first terminal apparatus, based on the first identification information, the second identification information, a first time difference, and a first time threshold, that the first data and the second data belong to same data, wherein the first time difference comprises a time difference between a time point at which the first terminal apparatus receives the first data and a time point at which the first terminal apparatus receives the second data, and the first time difference is less than the first time threshold, wherein the first time threshold is protocol-defined; or the first terminal apparatus receives a higher-layer signaling configuration or a physical layer signaling configuration from the first network apparatus, wherein the higher-layer signaling configuration or the physical layer signaling configuration is used to indicate the first time threshold. receiving, by a first terminal apparatus, first data and first identification information of the first data from a first network apparatus, wherein the first identification information is used to identify the first data; receiving, by the first terminal apparatus, second data and second identification information of the second data from a second terminal apparatus, wherein the second identification information is used to identify the second data, and the first identification information and the second identification information are further used to determine whether the first data and the second data belong to same data; and determining, by the first terminal apparatus, based on the first identification information, the second identification information, a first time difference, and a first time threshold, that the first data and the second data belong to same data, wherein the first time difference comprises a time difference between a time point at which the first terminal apparatus receives the first data and a time point at which the first terminal apparatus receives the second data, and the first time difference is less than the first time threshold, wherein the first time threshold is protocol-defined; or the first terminal apparatus receives a higher-layer signaling configuration or a physical layer signaling configuration from the first network apparatus, wherein the higher-layer signaling configuration or the physical layer signaling configuration is used to indicate the first time threshold.
A process for preparing a nanocomposite composition, comprising the steps of: (a) contacting a multifunctional intercalant comprising a cationic moiety separated from an anionic moiety by at least 1 carbon, with a clay at a temperature and for a period of time sufficient to produce an at least partially intercalated clay; and (b) contacting the at least partially intercalated clay with a functionalized interpolymer comprising one or more functional groups, at a temperature, and for a period of time sufficient to produce the nanocomposite composition, in which the at least partially intercalated clay has a d100 d-spacing determined using X-ray diffraction of greater than 20 Angstroms. (a) contacting a multifunctional intercalant comprising a cationic moiety separated from an anionic moiety by at least 1 carbon, with a clay at a temperature and for a period of time sufficient to produce an at least partially intercalated clay; and (b) contacting the at least partially intercalated clay with a functionalized interpolymer comprising one or more functional groups, at a temperature, and for a period of time sufficient to produce the nanocomposite composition, in which the at least partially intercalated clay has a d100 d-spacing determined using X-ray diffraction of greater than 20 Angstroms.
A method of optimizing an autoclave volume utilization, said method comprising: determining process parameters of an autoclave; modeling an autoclave configuration to determine airflow patterns in the autoclave, temperature variation throughout the autoclave, and a distribution of turbulent intensity in the autoclave; modifying the autoclave configuration with hardware changes to the autoclave to alter the airflow patterns in the autoclave, wherein the hardware changes include at least one of adding a diffusion screen at an air inlet, adding baffles in the autoclave, changing tool configurations, adding insulation between a part and a tool, and changing fan speed; modeling the modified autoclave configuration to determine modified airflow patterns in the autoclave, modified temperature variation throughout the autoclave, and modified distribution of turbulent intensity in the autoclave; and modeling the modified autoclave configuration with parts to be cured in the modified autoclave configuration to determine an arrangement of parts that maximizes the number of parts in the autoclave that meet predetermined cured properties of the parts. determining process parameters of an autoclave; modeling an autoclave configuration to determine airflow patterns in the autoclave, temperature variation throughout the autoclave, and a distribution of turbulent intensity in the autoclave; modifying the autoclave configuration with hardware changes to the autoclave to alter the airflow patterns in the autoclave, wherein the hardware changes include at least one of adding a diffusion screen at an air inlet, adding baffles in the autoclave, changing tool configurations, adding insulation between a part and a tool, and changing fan speed; modeling the modified autoclave configuration to determine modified airflow patterns in the autoclave, modified temperature variation throughout the autoclave, and modified distribution of turbulent intensity in the autoclave; and modeling the modified autoclave configuration with parts to be cured in the modified autoclave configuration to determine an arrangement of parts that maximizes the number of parts in the autoclave that meet predetermined cured properties of the parts.
Drawer box for a refrigeration device, in which a plurality of solid elevations (7, 13) are formed on the upper side of a storage tray (1, 1', 1", 17) of the drawer box, wherein the storage tray is removably placed on a base (1") of the drawer box or the storage tray (1, 1', 1") forms a base of the drawer box, characterised in that recesses complementary to the elevations (7, 13) are formed on the underside of the storage tray(1, 1', 1", 17).
Cemented carbide-cermet composite material consisting of: a contiguous phase composed of tungsten carbide-based cemented carbide and comprising a metallic binder composed of Co, Ni, Fe or an alloy of these and tungsten carbide particles embedded in the metallic binder and dispersed regions of a titanium carbide-, titanium nitride-, titanium carbonitride-, niobium carbide-, niobium carbonitride- or niobium nitride-based cermet which are embedded in the contiguous phase and comprise a second metallic binder composed of Co, Ni, Fe or an alloy of these and hard material particles embedded in the second metallic binder, characterized in that at least 97% by volume of the embedded dispersed regions of the cermet have a longest diameter of < 25 μm and at least 20% by volume of the embedded dispersed regions of the cermet have a shortest diameter of at least three times the average diameter of the tungsten carbide particles in the contiguous phase, where the % by volume are to be determined as indicated in the description. a contiguous phase composed of tungsten carbide-based cemented carbide and comprising a metallic binder composed of Co, Ni, Fe or an alloy of these and tungsten carbide particles embedded in the metallic binder and dispersed regions of a titanium carbide-, titanium nitride-, titanium carbonitride-, niobium carbide-, niobium carbonitride- or niobium nitride-based cermet which are embedded in the contiguous phase and comprise a second metallic binder composed of Co, Ni, Fe or an alloy of these and hard material particles embedded in the second metallic binder, characterized in that at least 97% by volume of the embedded dispersed regions of the cermet have a longest diameter of < 25 μm and at least 20% by volume of the embedded dispersed regions of the cermet have a shortest diameter of at least three times the average diameter of the tungsten carbide particles in the contiguous phase, where the % by volume are to be determined as indicated in the description.