mhurhangee/ep-ind-claims huggingface dataset:
A process for adding an inorganic solid additive to solid polymer particles, the process comprising the steps of: A. preparing a liquid dispersion comprising the inorganic solid additive and optionally one more other dispersible solid additives with a liquid dispersing medium; B. heating the liquid dispersion to at least 40°C to decrease the viscosity of the liquid dispersion; and C. combining the liquid dispersion with the solid polymer; wherein the inorganic solid additive is present in the dispersion in a range of from 25 to less than 55 weight percent solid, based on total weight solid additives and dispersing medium, wherein the inorganic solid additive is selected from: magnesium hydroxide, calcium hydroxide, calcium oxide, calcium carbonate, magnesium oxide, hydrotalcite, talc, clay, ignition resistance additives or combinations of two or more of these; the liquid dispersing medium is selected from: epoxidized vegetable oil, epoxidized linseed oil, dibutyl sebacate mineral oil, and combinations of two or more of these and the solid polymer is vinylidene chloride polymer or polyvinyl chloride. A. preparing a liquid dispersion comprising the inorganic solid additive and optionally one more other dispersible solid additives with a liquid dispersing medium; B. heating the liquid dispersion to at least 40°C to decrease the viscosity of the liquid dispersion; and C. combining the liquid dispersion with the solid polymer; wherein the inorganic solid additive is present in the dispersion in a range of from 25 to less than 55 weight percent solid, based on total weight solid additives and dispersing medium, wherein the inorganic solid additive is selected from: magnesium hydroxide, calcium hydroxide, calcium oxide, calcium carbonate, magnesium oxide, hydrotalcite, talc, clay, ignition resistance additives or combinations of two or more of these; the liquid dispersing medium is selected from: epoxidized vegetable oil, epoxidized linseed oil, dibutyl sebacate mineral oil, and combinations of two or more of these and the solid polymer is vinylidene chloride polymer or polyvinyl chloride.
An automatic disconnection mechanism for switches, which is installed together with a photovoltaic switch as an automatic disconnection system for the photovoltaic switch, comprising a shell, wherein the inside of the shell is hollow, and the shell is provided with a spindle, a cam sleeved on the spindle, a rotary ratchet sleeved on the spindle, a torsional spring sleeved on the spindle, a control ratchet needle that mates with the rotary ratchet, and a limiting mechanism (1.3) for limiting the rotation range of the cam; the rotary ratchet is provided with external teeth that mates with the control ratchet needle on the outer periphery; the spindle penetrates the shell and is integrated with the shaft of the photovoltaic switch; the cam is fixedly connected to the spindle, and one end surface thereof is provided with a guide pin (3.1); the rotary ratchet is disposed on a side of the cam on which the guide pin (3.1) is provided, the rotary ratchet and the spindle are matched by a hole-fitting manner; the rotary ratchet is provided with a long elliptical hole (4.1) that mates with the guide pin (3.1), and the corresponding angle of the long elliptical hole (4.1) is 10°; the torsional spring is disposed on a side of the rotary ratchet, wherein one end of the torsional spring is connected to the shell and other end thereof is fixedly connected to the cam or one end of the torsional spring is connected to the shell and the other end thereof is fixedly connected to the spindle, and wherein this enables the torsional spring to be in a tightened state when the spindle rotates clockwise with the shaft of the photovoltaic switch; the control ratchet needle is disposed on a side of the rotary ratchet; the control ratchet needle comprises a lock plate (6.3) and a release plate (6.2), and the connection portion of the lock plate (6.3) and the release plate (6.2) is sleeved on a short shaft (6.1) fixedly connected to the shell; the lock plate (6.3) is arranged corresponding to the outer teeth of the outer edge of the rotary ratchet, so that when the spindle rotates clockwise with the shaft of the photovoltaic switch, the rotary ratchet is fixed and locked by the lock plate (6.3); both sides of the release plate (6.2) are also provided with a trigger mechanism for impacting the release plate (6.2) to move the lock plate (6.3) away from the rotary ratchet and eventually disengaging from the rotary ratchet, and a reset mechanism for returning the release plate (6.2) to the original position after being impact by the trigger mechanism.
A method of obtaining an acoustic echo signal by a sonar apparatus comprising an acoustic array of receiver elements for receiving acoustic signals; and wherein the method compris es: - measuring one or more quantities indicative of phases and magnitudes of at least one predetermined acoustic calibration signal received from a plurality of respective directions by each of the receiver elements; - determining a respective complex directional responses for each of the receiver elements from the measured one or more quantities; - receiving an acoustic echo signal by each of the receiver elements; - compensating the received acoustic echo signal for the determined complex directional response for each of the receiver elements. - measuring one or more quantities indicative of phases and magnitudes of at least one predetermined acoustic calibration signal received from a plurality of respective directions by each of the receiver elements; - determining a respective complex directional responses for each of the receiver elements from the measured one or more quantities; - receiving an acoustic echo signal by each of the receiver elements; - compensating the received acoustic echo signal for the determined complex directional response for each of the receiver elements.
A board-making method, comprising: scoring a paper facing with a plurality of score lines at first intervals prior to combining the paper facing with any other paper medium; linearly-embossing a paper medium including fibres substantially aligned in a machine direction with a plurality of flutes aligned in the machine direction at second intervals, each of the plurality of flutes having an apex; and combining the paper facing with the linearly-embossed paper medium such that the score lines at first intervals are aligned parallel to the axes of the flutes and parallel to the fibres of the paper medium at second intervals, each score line being set equidistant from each of two adjacent flute apexes. scoring a paper facing with a plurality of score lines at first intervals prior to combining the paper facing with any other paper medium; linearly-embossing a paper medium including fibres substantially aligned in a machine direction with a plurality of flutes aligned in the machine direction at second intervals, each of the plurality of flutes having an apex; and combining the paper facing with the linearly-embossed paper medium such that the score lines at first intervals are aligned parallel to the axes of the flutes and parallel to the fibres of the paper medium at second intervals, each score line being set equidistant from each of two adjacent flute apexes.
Transfer device intended to be mounted in an enclosure provided with at least one sealed connection device, said transfer device comprising at least one first portion (14.1) forming a conduit for the flow of elements into said enclosure, and means for connecting to a device for displacing said transfer device inside the enclosure, characterized in that said first portion (14.1) haselastic deformation properties so as to be able to be elastically deformed by an operator and to allow after deformation the transfer device to pass through the connection device.
Vehicle door handle assembly comprising: - a bowl configured to be mounted in use in an opening of a door panel, characterized in that the vehicle door handle assembly also comprises: - a strip configured to be fastened to an upper part of the bowl, wherein the strip comprises two pins configured to extend through holes made in the bowl and to protrude in two respective apertures of the door panel to ensure the positioning of the strip with respect to the door panel in the vertical direction when the door handle is assembled to the vehicle. - a bowl configured to be mounted in use in an opening of a door panel, characterized in that the vehicle door handle assembly also comprises: - a strip configured to be fastened to an upper part of the bowl,
A method for deploying a virtualized network function using network edge computing, comprising: receiving, by a central virtualized network function component, "VNFC", first location information sent by a user terminal, wherein the central VNFC is a VNFC deployed in a central resource pool; and sending, by the central VNFC to a virtualized network function manager, "VNFM", a creation request message that is used to create an edge VNFC, to execute a deployment process of the edge VNFC, wherein the edge VNFC is a VNFC deployed in an edge resource pool, wherein the creation request message carries the first location information, the virtualized network function is completed by using the central VNFC and the edge VNFC, and the edge VNFC is configured based on the first location information. receiving, by a central virtualized network function component, "VNFC", first location information sent by a user terminal, wherein the central VNFC is a VNFC deployed in a central resource pool; and sending, by the central VNFC to a virtualized network function manager, "VNFM", a creation request message that is used to create an edge VNFC, to execute a deployment process of the edge VNFC, wherein the edge VNFC is a VNFC deployed in an edge resource pool, wherein the creation request message carries the first location information, the virtualized network function is completed by using the central VNFC and the edge VNFC, and the edge VNFC is configured based on the first location information.
Electric motor double drive for an adjustable support device for supporting a box-spring mattress or an upholstered bed, which has a frame and plate-like support parts which are adjustable relative to one another by pivoting, which have at least one fixed middle support part, an upper body support part articulated with one end of the middle support part so as to be pivotable about a horizontal pivot axis and a leg support part articulated with the other end of the middle support part so as to be pivotable about a horizontal pivot axis, wherein the double drive has a main body, on which two drive units (18, 18') are arranged, wherein in the assembly position of the double drive each drive unit (18, 18') is connected by drive technology to a pivot lever (26, 26'), wherein the pivot levers (26, 26') are secured pivotably onto the main body and are in active connection respectively with a support part to be adjusted for adjusting the latter and wherein the double drive is designed for tool-free assembly on the support device, wherein at least one pivot lever in the assembly position of the double drive loosely pressurises the assigned support element, wherein at the ends of the main body support elements (38, 38') are formed by means of which the main body in the assembly position of the double drive bears loosely on transverse struts (36, 36') of the support device, wherein the securing means are provided for securing the middle support part onto the main body of the double drive without tools and, wherein the securing means have a screw device (40, 40', 42, 42') activated by hand without tools.
A method for determining a distribution of spots for use with ion beam therapy for providing the spots in a target volume, wherein each spot represents a collection of ions of a specific energy level, the spot having a specific size at a specific lateral location, the method being performed in a treatment planning system and comprising the steps of: dividing the target volume in a plurality of target sections (6a-c) based on a user configuration comprising at least one spot size strategy defining a maximum spot size at the location of a Bragg peak; assigning a spot size strategy to each one of the target sections (6a-c) based on the location of the respective target section; and determining, within each target section (6a-c), spots in accordance with its spot size strategy, characterized in that the step of dividing the target volume comprises defining a risk target section between an edge of the target volume and a risk margin, wherein the risk margin corresponds to a parameter in the user configuration defining a margin in relation to an organ at risk. dividing the target volume in a plurality of target sections (6a-c) based on a user configuration comprising at least one spot size strategy defining a maximum spot size at the location of a Bragg peak; assigning a spot size strategy to each one of the target sections (6a-c) based on the location of the respective target section; and determining, within each target section (6a-c), spots in accordance with its spot size strategy, characterized in that the step of dividing the target volume comprises defining a risk target section between an edge of the target volume and a risk margin, wherein the risk margin corresponds to a parameter in the user configuration defining a margin in relation to an organ at risk.
Timepiece mechanism for displaying and correcting the state of two different time measurable quantities for a timepiece or a scientific apparatus including a timepiece movement, including or driving at least a first display mechanism for the display of a said first measurable time quantity and a second display mechanism for the display of a said second measurable time quantity included in said timepiece mechanism, said movement including an adjusting member, and wherein said first display mechanism and said second display mechanism respectively include a first drive mechanism and a second drive mechanism, which share a common drive mechanism, which is arranged to be driven by said movement, and which controls the driving of one of said first display mechanism and said second display mechanism by instantaneous jumps, and which controls the driving of the other of said first display mechanism and said second display mechanism in a dragging manner, and wherein said first display mechanism and said second display mechanism respectively include a first correction mechanism and a second correction mechanism, which share a common correction mechanism, which is arranged to be driven by said adjusting member, which is independent of said common drive mechanism, and which includes at least one friction safety device preventing any correction being performed when an instantaneous display jump is being prepared or carried out, characterized in that said common drive mechanism includes, pivoting integrally with each other relative to an oblong groove of a drive wheel arranged to be directly or indirectly driven by an output included in said movement, said output being locked on said reference period and driving a main reference display, a cam on which a release spring permanently exerts stress via a release lever, a disc driving said first display mechanism and carrying at least one radial drive finger, and a disc driving said second display mechanism and carrying a radial drive finger, said cam comprising steep ramps for instantaneously operating said drive disc for said second display mechanism, whereas said disc driving said first display mechanism only experiences the slow movements of a pin moving in said oblong groove and pivoting integrally with a stack, coaxial to said drive wheel on an arbour, including said cam, said drive disc of said first display mechanism and said drive disc of said second mechanism, the travel of said pin in said oblong aperture defining a making good period during which said disc is not driven, said disc being arranged to be dragged by the motion of said output, except during the making good periods when it remains stopped.
Method for assisting a reverse parking process of a motor vehicle equipped with a rear-view camera system into a transverse parking space, wherein the image of the surroundings to the rear of the motor vehicle is displayed on a display device of the motor vehicle, wherein during the reverse parking process the driving tube which is determined by the steering angle is displayed by a 3D frame blended into the image of the surroundings to the rear of the motor vehicle, wherein further auxiliary lines (24, 26) in the form of a distance grid are additionally blended in so as to help the driver orient the motor vehicle, characterized in that the driving tube directly dependent on the steering angle and displayed by the 3D frame is formed by two 3D symbols in the form of transparent 3D guide rails (18, 19) which are blended into the image of the surroundings to the rear of the motor vehicle, the distance grid blended into the rear view image is permanently connected to the vehicle coordinates system, wherein the distance grid during the parking process does not follow the 3D guide rails and is independent of the driving tube, and the line of the distance grid located closest to the vehicle serves as a stop line for stopping the parking process.
Printing unit for a printing apparatus to print at least one substrate, said printing unit comprising at least a containing tank to contain at least a print material, a print head to deliver said print material onto said substrate and feed members connected between said tank and said print head in order to feed said print material, characterized in that it comprises a support element on which said tank, said print head and said feed members are installed, said support element being selectively and releasably installable on a slider of said printing apparatus, said slider being provided with one or more connection seats and configured to move said printing unit with respect to said substrate, said support element being provided with on or more removable attachment means able to be inserted by gravity in said connection seats.
A steel composition comprising: Cr at between 10.0 wt% and 13.0 wt%; C at between 0.17 wt% and 0.23 wt%; Mo at between 0.80 wt% and 1.2 wt%; Si less than or equal to 0.5 wt%; Mn less than or equal to 1.0 wt%; V at between 0.25 wt% and 0.35 wt%; W at between 0.40 wt% and 0.60 wt%; and balanced by Fe of at least 80 wt%; wherein the steel composition has been processed so that it exhibits a swelling of less than 0.9 % by volume at a depth between 500-700 nm below the surface after dual-beam Fe ++ and He ++ irradiation to doses of 188 displacements per atom (dpa) with 0.2 appm He/dpa, as calculated using the Stopping Range in Matter simulation with the K-P option for damage cascades and a 40 eV displacement energy, created by irradiating the steel composition at 460°C with a defocused beam of 5 MeV Fe ++ ions and a raster-scanned beam of ~ 2 MeV He ++ ions transmitted through a thin Al foil for scattering and energy reduction to create a uniform He profile at the irradiation depth of the sample. Cr at between 10.0 wt% and 13.0 wt%; C at between 0.17 wt% and 0.23 wt%; Mo at between 0.80 wt% and 1.2 wt%; Si less than or equal to 0.5 wt%; Mn less than or equal to 1.0 wt%; V at between 0.25 wt% and 0.35 wt%; W at between 0.40 wt% and 0.60 wt%; and balanced by Fe of at least 80 wt%; wherein the steel composition has been processed so that it exhibits a swelling of less than 0.9 % by volume at a depth between 500-700 nm below the surface after dual-beam Fe ++ and He ++ irradiation to doses of 188 displacements per atom (dpa) with 0.2 appm He/dpa, as calculated using the Stopping Range in Matter simulation with the K-P option for damage cascades and a 40 eV displacement energy, created by irradiating the steel composition at 460°C with a defocused beam of 5 MeV Fe ++ ions and a raster-scanned beam of ~ 2 MeV He ++ ions transmitted through a thin Al foil for scattering and energy reduction to create a uniform He profile at the irradiation depth of the sample.
Ignition coil having a high-voltage connection, a spring for electrically connecting the high-voltage connection to a spark plug, and an elastic protective jacket surrounding the spring, wherein the windings of the spring bear against one another in a block state in a block section facing the high-voltage connection and are spaced from one another in a spring section provided for contact-making with the ignition coil, characterized in that the block section (15.1) of the spring is supported at its end facing the spring section (15.2) on at least one support shoulder of the protective jacket.
A method of mass spectrometry comprising: generating a plurality of species of parent ions and passing the plurality of species of parent ions to a quadrupole mass filter as a precursor ion beam; encoding the precursor ion beam by varying a mass to charge ratio transmission window of the quadrupole mass filter, wherein said mass to charge ratio transmission window is varied so that different species of parent ions are caused to have different intensity profiles as a function of time, wherein the encoding includes non-deterministic or pseudo-random effects; subsequent to the step of encoding, forming fragment or product ions derived from the plurality of species of parent ions; mass analysing the fragment or product ions which are derived from said parent ions; and correlating or assigning some of the fragment or product ions of the fragment or product ions derived from said parent ions with corresponding parent ions of the plurality of species of parent ions on the basis of the intensity profile of said fragment or product ions as a function of time and the different intensity profiles of said parent ions as a function of time. generating a plurality of species of parent ions and passing the plurality of species of parent ions to a quadrupole mass filter as a precursor ion beam; encoding the precursor ion beam by varying a mass to charge ratio transmission window of the quadrupole mass filter, wherein said mass to charge ratio transmission window is varied so that different species of parent ions are caused to have different intensity profiles as a function of time, wherein the encoding includes non-deterministic or pseudo-random effects; subsequent to the step of encoding, forming fragment or product ions derived from the plurality of species of parent ions; mass analysing the fragment or product ions which are derived from said parent ions; and correlating or assigning some of the fragment or product ions of the fragment or product ions derived from said parent ions with corresponding parent ions of the plurality of species of parent ions on the basis of the intensity profile of said fragment or product ions as a function of time and the different intensity profiles of said parent ions as a function of time.
A pneumatic tire having a pair of spaced apart bead components, a connecting carcass between the bead components, a pair of sidewalls overlying the carcass, and a rubber chafer portion adjacent to each of the sidewalls and positioned around at least a portion of each of the bead components and intended for contacting a rigid rim of a wheel, at least one of the rubber chafer portions comprising a radially innermost toe guard and a chafer adjacent to a radially outer end of the toe guard, wherein the toe guard has the radially outer end disposed at a sidewall axially outer surface, characterized in that the ratio of the modulus of elasticity of the toe guard to the modulus of elasticity of the chafer is in the range of from 5 to 8.