mhurhangee/ep-ind-claims huggingface dataset:
A functional filler comprising: (i) an inorganic particulate, wherein the inorganic particulate material has a d 50 of up to 1.0 μm; and (ii) a coating comprising a first compound including a terminating propanoic group or ethylenic group with one or two adjacent carbonyl groups, wherein the first compound is present in the functional filler in an amount of from 0.6 wt. % to 1.2 wt. %, based on the total weight of the functional filler, and wherein the first compound has a formula: A-(X-Y-CO) m (O-B-CO) n OH wherein A is a moiety containing a terminating ethylenic bond with one or two adjacent carbonyl groups: X is O and m is 1 to 4 or X is N and m is 1; Y is C 1-18 -alkylene or C 2-18 -alkenylene; B is C 2-6 -alkylene; n is 0 to 5; provided that when A contains two carbonyl groups adjacent to the ethylenic group, X is N; and wherein the inorganic particulate is selected from an alkaline earth metal carbonate or sulphate, such as calcium carbonate, magnesium carbonate, dolomite, gypsum, a hydrous kandite clay such as kaolin, halloysite or ball clay, an anhydrous (calcined) kandite clay such as metakaolin or fully calcined kaolin, talc, mica, perlite or diatomaceous earth, or magnesium hydroxide, or combinations thereof. X is O and m is 1 to 4 or X is N and m is 1; Y is C 1-18 -alkylene or C 2-18 -alkenylene; B is C 2-6 -alkylene; n is 0 to 5; provided that when A contains two carbonyl groups adjacent to the ethylenic group, X is N; and wherein the inorganic particulate is selected from an alkaline earth metal carbonate or sulphate, such as calcium carbonate, magnesium carbonate, dolomite, gypsum, a hydrous kandite clay such as kaolin, halloysite or ball clay, an anhydrous (calcined) kandite clay such as metakaolin or fully calcined kaolin, talc, mica, perlite or diatomaceous earth, or magnesium hydroxide, or combinations thereof.
A method for setting a positioning mode, applied to a mobile terminal comprising multiple application programs, comprising: obtaining an azimuth and at least one signal parameter value of each preset satellite of M preset satellites that exist when the mobile terminal is at a first location and at a first moment, wherein the signal parameter value comprises one of a carrier-to-noise ratio of a satellite signal or strength of a satellite signal, and M is an integer greater than 1; sorting the M preset satellites according to values of azimuths, and obtaining, from the M sorted preset satellites, N satellite combinations that are consecutively arranged and that have signal parameter values less than corresponding preset values, wherein N is an integer not less than 1, and each satellite combination comprises at least one preset satellite; determining a quantity of preset satellites in a first satellite combination of the N satellite combinations, wherein the first satellite combination is a satellite combination of the N satellite combinations that comprises a largest quantity of preset satellites; when a ratio of the quantity of the preset satellites in the first satellite combination to M is less than a first threshold, setting the positioning mode to an outdoor positioning mode; and when a ratio of the quantity of the preset satellites in the first satellite combination to M is greater than a second threshold, setting the positioning mode to an indoor positioning mode, wherein the first threshold is not greater than the second threshold. obtaining an azimuth and at least one signal parameter value of each preset satellite of M preset satellites that exist when the mobile terminal is at a first location and at a first moment, wherein the signal parameter value comprises one of a carrier-to-noise ratio of a satellite signal or strength of a satellite signal, and M is an integer greater than 1; sorting the M preset satellites according to values of azimuths, and obtaining, from the M sorted preset satellites, N satellite combinations that are consecutively arranged and that have signal parameter values less than corresponding preset values, wherein N is an integer not less than 1, and each satellite combination comprises at least one preset satellite; determining a quantity of preset satellites in a first satellite combination of the N satellite combinations, wherein the first satellite combination is a satellite combination of the N satellite combinations that comprises a largest quantity of preset satellites; when a ratio of the quantity of the preset satellites in the first satellite combination to M is less than a first threshold, setting the positioning mode to an outdoor positioning mode; and when a ratio of the quantity of the preset satellites in the first satellite combination to M is greater than a second threshold, setting the positioning mode to an indoor positioning mode, wherein the first threshold is not greater than the second threshold.
Subscriber station (10; 30) for a bus system, having a communication control device for generating or reading a first message for/from at least one further subscriber station of the bus system, in the case of which, at least intermittently, exclusive, collision-free access by a subscriber station (10, 20, 30) to a bus of the bus system is ensured, wherein the communication control device is configured such that it generates or reads the first message as a frame that has a greater length than the maximum length of further frames (461; 462; 46584), as which second messages are transmitted in the bus system, and that has data of the first message in unsegmented form, wherein the communication control device is configured such that data are transmitted in the bus system in accordance with the CAN FD specification, characterized in that the communication control device is configured such that the first message is an extended CAN FD frame containing 4096 bytes and the further frames are CAN FD frames, wherein the communication control device is configured such that the adjustment of the CAN FD medium to 4096 bytes or 4 kbytes results in the data frame being used for a UDS communication, so that the segmentation of the UDS services can be dispensed with.
A stromal-cell derived factor-1 (SDF-1) plasmid comprising an SDF-1α cDNA sequence whose expression is driven by a cytomegalovirus enhancer and promoter, CMV-intron A and the RU5 translational enhancer.
A differential pressure sensor apparatus, comprising; a MEMS configured pressure sense die with a pressure sensing diaphragm, wherein the pressure sense die has a top side that includes a plurality of wirebonding pads; a top cap having a hole formed therein, said top cap attached to the top side of the pressure sense die, wherein said top cap isolates a sensed media from the plurality of wirebonding pads; and a topside port sealed relative to the top side of the top cap and a sealed backside port, the topside port and the backside port overpackaging said pressure sense die, wherein said topside port and said backside port are configured to allow said sensed media to come into contact with said top side and a bottom side of said pressure sensing diaphragm without coming into contact with said plurality of wirebonding pads.
A dental divestment method in which a dental restoration part is divested from a cured muffle after preparation of the muffle by parting or blasting, in particular by sandblasting, characterized in that in the production of the muffle, that is to say before it is cast by means of a casting compound, moldings or protrusions are realized in or at the casting mold which consist of a removable, in particular of a burn-out material, in that the moldings or protrusions are removed, in particular burnt out, after the muffle has cured, and in that the indentations or mold cavities produced in this way are configured and/or used as a predetermined breaking point, which is spaced apart from the dental restoration part, for the muffle during divestment.
A rubber extrusion device comprising a rubber extruder for kneading rubber and extruding the same from a discharging port, and a gear pump connected to the discharging port of the rubber extruder, the rubber extruder comprising a cylinder portion arranged above a floor on which the rubber extruder is placed, and a rubber extrusion screw installed in the cylinder portion, the gear pump comprising an electric motor, a reducer linked to the electric motor and having an output shaft, and a gear pump main body linked to the reducer, the gear pump main body comprising a chamber having an inlet port for receiving rubber extruded from the rubber extruder, and an outlet port for discharging rubber out from the gear pump, and a pair of gears meshing one another installed in the chamber for pumping rubber toward the outlet port, wherein the gears are arranged so that the respective rotating axes of the gears and an axial direction of the cylinder portion are cross at right angles, the gear pump main body fixed to the cylinder portion of the rubber extruder so that the inlet port is adjusted to the discharging port of the rubber extruder, the electric motor and the reducer being arranged in a space below the cylinder portion or the gear pump main body, and a wrapping transmission means for linking between the output shaft of the reducer and one of the gears, characterized in that the electric motor comprises a rotating shaft arranged in parallel with the axial direction of the cylinder portion, and the reducer comprises a rotation direction changing device for transmitting torque generated from the rotating shaft to the gears by changing a direction of the torque of the rotating shaft of the electric motor at 90 degrees around a vertical axis, and wherein the electric motor and the reducer are fixed to the floor, and the gear pump main body and the reducer are connected through a support member.
A method of wireless transmission of data packets in compliance with a Bluetooth low energy standard by a hearing aid comprising a transmitter, the method comprising: transmitting a first data packet of a first data category and having a first priority from the transmitter for reception by a receiver in a first connection event, in presence of the acknowledgement of receipt of the first data packet from the receiver, transmitting a second data packet of a second data category with a second priority, which is lower than the first priority, from the transmitter to the receiver in the first connection event, in absence of acknowledgement of receipt of the first data packet from the receiver, re-transmitting the first data packet at most for a predetermined maximum number of times in the first connection event. transmitting a first data packet of a first data category and having a first priority from the transmitter for reception by a receiver in a first connection event, in presence of the acknowledgement of receipt of the first data packet from the receiver, transmitting a second data packet of a second data category with a second priority, which is lower than the first priority, from the transmitter to the receiver in the first connection event, in absence of acknowledgement of receipt of the first data packet from the receiver, re-transmitting the first data packet at most for a predetermined maximum number of times in the first connection event.
A security camera system comprising: a camera housing including a transparent camera bubble; a camera located within the transparent camera bubble for generating images of a scene through the transparent camera bubble; and a condensation mitigation system (114, 116, 118, 120) for removing condensation on the transparent camera bubble of the security camera housing; characterized in that the system further comprises a controller arranged to analyze the images of the scene for indications of misting on the transparent camera bubble of the security camera housing by comparing a metric calculated for the images to the metric for previously captured images and arranged to activate the condensation mitigation system in response to detecting the indications of misting the controller analyzes the images for the indications of misting by calculating an edge sharpness or contrast metric for the images and compares the edge sharpness or contrast metric to the previously captured images, then determines whether there is a degradation in the edge sharpness or contrast, and activates the condensation mitigation system in response detecting the degradation of the edge sharpness or contrast in the images from the camera. a camera housing including a transparent camera bubble; a camera located within the transparent camera bubble for generating images of a scene through the transparent camera bubble; and a condensation mitigation system (114, 116, 118, 120) for removing condensation on the transparent camera bubble of the security camera housing; characterized in that the system further comprises a controller arranged to analyze the images of the scene for indications of misting on the transparent camera bubble of the security camera housing by comparing a metric calculated for the images to the metric for previously captured images and arranged to activate the condensation mitigation system in response to detecting the indications of misting the controller analyzes the images for the indications of misting by calculating an edge sharpness or contrast metric for the images and compares the edge sharpness or contrast metric to the previously captured images, then determines whether there is a degradation in the edge sharpness or contrast, and activates the condensation mitigation system in response detecting the degradation of the edge sharpness or contrast in the images from the camera.
Electromagnetic line protection actuator comprising a plurality of windings surrounding a movable magnetic core which is capable of moving from a position of rest to an actuating position under the effect of the magnetic field created by the windings and comprising: - a differential winding which generates a magnetic field in response to a differential type fault on the current line to be protected; - a magnetic winding characterised in that said magnetic winding is imbricated with the differential winding and generates a magnetic field in response to a short-circuit type fault on the current line to be protected, and in that it also comprises a third winding imbricated with the differential and the magnetic windings, traversed by a current, the direction of which is reversed relative to that of the differential winding when a current flows between phase Ph and the neutral phase N of the actuator, and generating a magnetic field opposite to the magnetic field created by the differential winding, said third winding being connected in parallel with the differential winding between phase Ph and the neutral phase N of the line to be protected, and controlled by control means. - a differential winding which generates a magnetic field in response to a differential type fault on the current line to be protected; - a magnetic winding characterised in that said magnetic winding is imbricated with the differential winding and generates a magnetic field in response to a short-circuit type fault on the current line to be protected,
Lamp structure (2, 2') for detachably securing to a holding structure, wherein the lamp structure (2, 2') comprises on its outside a first protruding or recessed portion as well as, offset to this, a second protruding or recessed portion, wherein the first and the second portion (12, 18) can be moved in the direction towards each other against a return force, characterized in that the lamp structure (2, 2') exhibits an approximately V-shaped cross-section, and wherein a section of a limb of the lamp structure is formed of a transparent material.
A wiper insert for turning comprising an upper surface (11;11'), a lower surface (12;12') substantially parallel with said upper surface, and at least three side surfaces (13A,13B;13A',13B') extending between said upper and lower surfaces, a transition between two adjacent side surfaces (13A,13B;13A',13B') forming a rounded nose radius surface (14A;14A') at a wiper insert corner, characterized in that the wiper insert comprises a peripheral land (15,15A,15B;15A',15B') bridging the upper surface and side surfaces at least at the corner portion at a chamfer angle (βA-βE), and an intersection of said land (15,15A,15B;15A',15B') and said nose radius surface (14A;14A') forming a nose cutting edge (16;16'), said nose cutting edge (16;16') being defined by at least one radius, said cutting corner comprising at least one curved wiper edge (17,18;17',18'), the chamfer angle (βC) in a cross-section at the nose cutting edge (16;16') is smaller than the chamfer angle in a cross-section a distance away from the nose cutting edge (16;16') and in that the chamfer angle (βC) has a minimum at a bisector of the corner portion.
A wafer level opto-electronic assembly comprising a silicon wafer populated with a plurality of opto-electronic modules in separate die locations, with a separate sealing layer comprising a gold-tin solder material disposed to surround each individual optoelectronic module attached to a glass substrate molded to include a plurality of lid encapsulates in separate die locations, wherein the assembly is obtainable by providing a silicon wafer populated with a plurality of opto-electronic modules in separate die locations, with a separate sealing layer comprising a gold-tin solder material disposed to surround each individual optoelectronic module; providing a glass substrate molded to include a plurality of lid encapsulates in separate die locations, each lid encapsulate including a bonding material on a top surface thereof; inverting and attaching the glass substrate to the silicon wafer, such that the lid encapsulate bonding material contacts an associated sealing layer, creating a bond therebetween and forming a plurality of encapsulated opto-electronic modules; wherein the layer of bonding material on the molded lid encapsulate comprises a metallic compound for creating a solder seal with the sealing layer. providing a silicon wafer populated with a plurality of opto-electronic modules in separate die locations, with a separate sealing layer comprising a gold-tin solder material disposed to surround each individual optoelectronic module; providing a glass substrate molded to include a plurality of lid encapsulates in separate die locations, each lid encapsulate including a bonding material on a top surface thereof; inverting and attaching the glass substrate to the silicon wafer, such that the lid encapsulate bonding material contacts an associated sealing layer, creating a bond therebetween and forming a plurality of encapsulated opto-electronic modules;
A positive electrode for a lithium ion secondary battery, comprising an electrode current collector where a positive electrode active material mixture for a lithium ion secondary battery is disposed, wherein the positive electrode active material mixture for a lithium ion secondary battery includes an positive electrode active material, a conductive agent containing carbon black, and a binder; wherein the positive electrode active material has a maximum particle diameter (D Max_EC) and the carbon black has a maximum particle diameter (D Max_C), each maximum particle diameter being determined in according to a sedimentation analysis based on Stokes' law; and wherein the maximum particle diameter of the carbon black is adjusted by using a classifier, a sieve, or a pulverizer with a built-in classifier so that the ratio of the maximum particle diameter (D Max_C) of the carbon black to the maximum particle diameter (D Max_EC) of the positive electrode active material is equal to or less than 0.91.
A method for producing a continuous nanofiber without electrospinning-assistance, characterized in that it comprises the following steps: a) providing a preform made from a precursor material with an elongated shape and longitudinally moving the preform at a uniform speed towards a processing area, b) as the preform made from a precursor material reaches the processing area maintaining a uniform speed, continuously applying laser radiation on the region of the preform that is entering the processing area for heating to a suitable melting temperature, and c) continuously applying gas in a coaxial manner with respect to the precursor material melt and in the same direction of movement, such that by the combined action of the heating produced by the laser radiation and the coaxial application of the gas, uniaxial drawing of the precursor material melt in the direction of movement takes place in the processing area, its diameter thereby being reduced, and d) as the precursor material melt of reduced diameter exits the processing area, said melt continues to be drawn by the action of the coaxial gas and is cooled, being solidified, until forming a nanofiber. a) providing a preform made from a precursor material with an elongated shape and longitudinally moving the preform at a uniform speed towards a processing area, b) as the preform made from a precursor material reaches the processing area maintaining a uniform speed, continuously applying laser radiation on the region of the preform that is entering the processing area for heating to a suitable melting temperature, and c) continuously applying gas in a coaxial manner with respect to the precursor material melt and in the same direction of movement, such that by the combined action of the heating produced by the laser radiation and the coaxial application of the gas, uniaxial drawing of the precursor material melt in the direction of movement takes place in the processing area, its diameter thereby being reduced, and d) as the precursor material melt of reduced diameter exits the processing area, said melt continues to be drawn by the action of the coaxial gas and is cooled, being solidified, until forming a nanofiber.
A film comprising at least an outer layer, an intermediate layer, and an inner layer, wherein the outer layer comprises a polypropylene resin, the intermediate layer comprises a polypropylene resin and a hydrogenated block copolymer (a), and the inner layer comprises a polypropylene resin, and wherein the hydrogenated block copolymer (a) comprises, in a molecule, a polymer block comprising 90% by mass or more of a conjugated diene compound, a polymer block comprising 90% by mass or more of a conjugated diene compound, and a polymer block comprising 90% by mass or more of a vinyl aromatic compound, a content of the polymer block mainly comprising a conjugated diene compound is 1 to 30% by mass, a content of the polymer block mainly comprising a conjugated diene compound is 69 to 98% by mass, and a content of the polymer block mainly comprising a vinyl aromatic compound is 1 to 20% by mass in the hydrogenated block copolymer (a), and the polymer block mainly comprising a conjugated diene compound has a vinyl bond content before hydrogenation of 1 to 25 mol%, the polymer block mainly comprising a conjugated diene compound has a vinyl bond content before hydrogenation of 60 to 100 mol%, and the hydrogenated block copolymer (a) has a degree of hydrogenation of 80 mol% or more.