mhurhangee/ep-ind-claims huggingface dataset:
Method for welding a heat shield during manufacturing of a vehicle tank, for example a fuel tank or an additive tank, or a filler pipe, the tank or the pipe being made from a thermoplastic material, said heat shield comprising a reinforcement layer made from a thermoplastic material which is weldable to the thermoplastic material of the vehicle tank or filler pipe; and a heat shielding material which differs from said thermoplastic material of said reinforcement layer and which is configured for decreasing the transfer of heat through the reinforcement layer to the vehicle tank or filler pipe; wherein the method comprises the steps of: - heating said heat shield to bring the thermoplastic material of the reinforcement layer in a molten state; - placing the heated heat shield in a mold; - bringing into the mold the thermoplastic material of the vehicle tank or filler pipe in a molten state; - welding the thermoplastic material of the reinforcement layer being in a molten state to the thermoplastic material of the vehicle tank or filler pipe being in a molten state, by blow molding the vehicle tank or filler pipe in said mold; - heating the heat shield using additional heating means provided in the mold - heating said heat shield to bring the thermoplastic material of the reinforcement layer in a molten state; - placing the heated heat shield in a mold; - bringing into the mold the thermoplastic material of the vehicle tank or filler pipe in a molten state; - welding the thermoplastic material of the reinforcement layer being in a molten state to the thermoplastic material of the vehicle tank or filler pipe being in a molten state, by blow molding the vehicle tank or filler pipe in said mold; - heating the heat shield using additional heating means provided in the mold
A neurostimulation system for use with an implantable lead (102, 104) including at least one lead electrode, the neurostimulation system comprising: a pulse generator including a lead connector (117a, 117b); circuitry, operably connected to the lead (102, 104) connector (117a, 117b), said circuitry configured to measure artifactual data concerning tissue in the vicinity of the at least one lead (102, 104) electrode to establish a baseline artifactual data value and configured to create a trended baseline artifactual data value based on the baseline artifactual data value and configured to measure artifactual data concerning the tissue in the vicinity of the at least one lead (102, 104) electrode at a subsequent time to establish a subsequent artifactual data value; and configured to determine whether the implantable lead (102, 104) has migrated as a result of sudden movement by comparing the subsequent artifactual data value to the trended baseline artifactual data value.
Manure pit, of the type that uses a geomembrane for covering an excavation, said pit being defined by peripheral walls extending from a bottom, at least one of the walls being an inclined wall, such that the pit becomes wider towards the top, characterised in that the inclined wall has a cavity extending in the vicinity of the bottom of the pit, the cavity having two side walls which are interspaced such that the cavity can receive a pumping body.
Spreader unit for a drum brake, comprising a housing and two, first and second brake shoe holders (31, 31') that are arranged in a manner secured against rotation in relation to the housing, are able to be actuated linearly along an axis, respectively away from one another in a spreading direction (S, S') and respectively toward one another in a release direction (L, L'), and each act on a first and a second brake shoe (4, 4') provided respectively with a brake lining (5, 5'), having one or more rotation-translation converter apparatuses, and wherein a readjustment device for compensating for an actuating travel that increases as a result of wear on the brake linings (5, 5') is arranged between the actuating pistons, said readjustment device being designed such that it changes the spacing of the actuating pistons in at least one readjustment step when the actuating travel has exceeded a setpoint value, characterized in that a thermally activatable blocking device is provided, which is designed such that, at a temperature above a setpoint value, the execution of the readjustment step by the readjustment device is mechanically prevented.
An automotive pipe suitable for being mounted on an automobile comprising: an inner pipe portion through which a fluid passes; an outer pipe portion surrounding a part of the inner pipe portion; and a restricting portion configured to restrict the outer pipe portion from moving in an axial direction thereof, wherein at least an outer circumferential surface of the inner pipe portion facing the outer pipe portion is made of a resin, characterized in that the inner pipe portion includes a core portion made of a metal and a resin layer coating an outer circumference of the core portion, and the width of a gap between the inner pipe portion and the outer pipe portion is smaller than a thickness of the resin layer. an inner pipe portion through which a fluid passes; an outer pipe portion surrounding a part of the inner pipe portion; and a restricting portion configured to restrict the outer pipe portion from moving in an axial direction thereof, wherein at least an outer circumferential surface of the inner pipe portion facing the outer pipe portion is made of a resin, characterized in that the inner pipe portion includes a core portion made of a metal and a resin layer coating an outer circumference of the core portion, and the width of a gap between the inner pipe portion and the outer pipe portion is smaller than a thickness of the resin layer.
Cover for a cell-culture container, which encloses a culture volume and has an opening, with a valve arrangement, suitable for filling the cell-culture container with a fluid and/or for pumping fluid out of the cell-culture container, characterized in that it has a compensation opening, which is suitable for aerating the cell-culture container and/or for pressure compensation during filling or pumping out, wherein the valve arrangement is formed magnetically switchable between an outlet position and a blocked position and connectable to a fluid supply interface and contactlessly switchable with magnetic elements. a valve arrangement, suitable for filling the cell-culture container with a fluid and/or for pumping fluid out of the cell-culture container, characterized in that it has a compensation opening, which is suitable for aerating the cell-culture container and/or for pressure compensation during filling or pumping out, wherein the valve arrangement is formed magnetically switchable between an outlet position and a blocked position and connectable to a fluid supply interface and contactlessly switchable with magnetic elements.
A battery having a shape of a portion of a circular truncated cone comprising: a first surface having a circumference of a closed curve defined by connecting to each other ends of each of two circular arcs having two curvature radius (r1, r2), the same curvature center and the same central angle (θ); a second surface having a circumference of a closed curve defined by connecting to each other ends of each of two circular arcs having two curvature radius (R1, R2), the same curvature center and the same central angle (θ'); and a volume portion configured to connect in a straight line the first surface to the second surface and defining a volume, wherein the circumference of the first surface and circumference of the second surface have two curves curved in the same direction, the first surface has an area different from that of the second surface, the first surface is parallel to the second surface, the curvature radius (r1, r2) of the two circular arcs constituting the circumference of the first surface and the curvature radius (R1, R2) of the two circular arcs constituting the circumference of the second surface are different, the curvature center of the two circular arcs constituting the circumference of the first surface and the curvature center of the two circular arcs constituting the circumference of the second surface are the same, and the central angle (θ) of the two circular arcs constituting the circumference of the first surface and the central angle (θ') of the two circular arcs constituting the circumference of the second surface are the same. a first surface having a circumference of a closed curve defined by connecting to each other ends of each of two circular arcs having two curvature radius (r1, r2), the same curvature center and the same central angle (θ); a second surface having a circumference of a closed curve defined by connecting to each other ends of each of two circular arcs having two curvature radius (R1, R2), the same curvature center and the same central angle (θ'); and a volume portion configured to connect in a straight line the first surface to the second surface and defining a volume, wherein the circumference of the first surface and circumference of the second surface have two curves curved in the same direction, the first surface has an area different from that of the second surface, the first surface is parallel to the second surface, the curvature radius (r1, r2) of the two circular arcs constituting the circumference of the first surface and the curvature radius (R1, R2) of the two circular arcs constituting the circumference of the second surface are different, the curvature center of the two circular arcs constituting the circumference of the first surface and the curvature center of the two circular arcs constituting the circumference of the second surface are the same, and the central angle (θ) of the two circular arcs constituting the circumference of the first surface and the central angle (θ') of the two circular arcs constituting the circumference of the second surface are the same.
An article comprising a film layer, the film layer comprising a polymer blend comprising a thermoplastic polyurethane and a polyvinyl butyral; an adhesive layer adjacent to the film layer; and an image on the film layer.
A substrate comprising a surface at least a portion of which is covered with an epilame agent, characterised in that said epilame agent comprises at least one compound in the form of a copolymer comprising units M and units N, associated by covalent bonds via their main chains, where M is N is where R 1 and R 2, which may be identical or different, are H, a C 1 -C 10 alkyl group, a C 2 -C 10 alkenyl group, and preferably H or CH 3, X and Y, which may be identical or different, are spacer arms consisting of a heteroatom or a linear or branched hydrocarbon chain containing at least one heteroatom and comprising at least one carbon atom, A, which may be identical or different, forms an anchoring group to the substrate, L, which may be identical or different, is a halogenated ether group according to formula where Q is a halogen atom, P, which may be identical or different, is a C 1 -C 10 alkyl group or a C 2 -C 10 alkenyl group comprising at least one halogen atom and being linear or branched, p is chosen between 1 and 4, preferably between 2 and 3, and n is chosen between 1 and 20, preferably between 1 and 10. M is N is where R 1 and R 2, which may be identical or different, are H, a C 1 -C 10 alkyl group, a C 2 -C 10 alkenyl group, and preferably H or CH 3, X and Y, which may be identical or different, are spacer arms consisting of a heteroatom or a linear or branched hydrocarbon chain containing at least one heteroatom and comprising at least one carbon atom, A, which may be identical or different, forms an anchoring group to the substrate, L, which may be identical or different, is a halogenated ether group according to formula where Q is a halogen atom, P, which may be identical or different, is a C 1 -C 10 alkyl group or a C 2 -C 10 alkenyl group comprising at least one halogen atom and being linear or branched, p is chosen between 1 and 4, preferably between 2 and 3, and n is chosen between 1 and 20, preferably between 1 and 10.
A grill comprising: a lid, the lid having an inner wall and an outer wall and forming a substantially hollow plenum between the inner wall and outer wall; a grill body having a top, a bottom and a plurality of air intake slots on the bottom of the grill body, the air intake slots having a key shape (28, 29); an insert secured within the grill body, the insert having a top portion, a bottom portion and an intermediate portion, the top portion adapted to engage the top of the grill body, the intermediate portion adapted to support an annular retaining member and the bottom portion adapted to support a fuel grate; and, a hinged deflector plate (38 1) having at least two sections (38A, 38B) coupled together with a hinge assembly, the hinged deflector plate (38 1) supported by the annular retaining member. a lid, the lid having an inner wall and an outer wall and forming a substantially hollow plenum between the inner wall and outer wall; a grill body having a top, a bottom and a plurality of air intake slots on the bottom of the grill body, the air intake slots having a key shape (28, 29); an insert secured within the grill body, the insert having a top portion, a bottom portion and an intermediate portion, the top portion adapted to engage the top of the grill body, the intermediate portion adapted to support an annular retaining member and the bottom portion adapted to support a fuel grate; and, a hinged deflector plate (38 1) having at least two sections (38A, 38B) coupled together with a hinge assembly, the hinged deflector plate (38 1) supported by the annular retaining member.
A method for filtering in video decoding, comprising: determining, by a processor, a first combination from reconstructed samples of a first color component within a filter support region; determining, by the processor and based on a mapping that associates offset values with combinations of possible reconstructed sample values, a first offset value that is associated with the first combination; and applying, by the processor, the first offset value on a to-be filtered sample of a second color component in the filter support region to determine a filtered sample of the second color component, characterized by calculating differences of surrounding reconstructed samples of the reconstructed samples to a collocated sample within the reconstructed samples of the first color component, the collocated sample being located at a same position as the to-be filtered sample of the second color component; and quantizing the differences based on a quantization step size to determine the first combination. determining, by a processor, a first combination from reconstructed samples of a first color component within a filter support region; determining, by the processor and based on a mapping that associates offset values with combinations of possible reconstructed sample values, a first offset value that is associated with the first combination; and applying, by the processor, the first offset value on a to-be filtered sample of a second color component in the filter support region to determine a filtered sample of the second color component, characterized by calculating differences of surrounding reconstructed samples of the reconstructed samples to a collocated sample within the reconstructed samples of the first color component, the collocated sample being located at a same position as the to-be filtered sample of the second color component; and quantizing the differences based on a quantization step size to determine the first combination.
A physiological detection signal quality evaluation method, wherein the method comprises: obtaining a sample data set collected by a detection device in different scenarios; selecting sample data of a scenario from the sample data set, and dividing the sample data into physiological data and PPG data; calculating an energy ratio of the physiological data based on the physiological data and the PPG data; separately calculating quality evaluation parameters of sample data of a plurality of classified scenarios based on energy ratios of the physiological data corresponding to different scenarios; and evaluating, based on the quality evaluation parameters, quality of a physiological detection signal collected by the detection device; characterised in that calculating the energy ratio of the physiological data based on the physiological data and the PPG data comprises: separately calculating, based on the physiological data and the PPG data, a plurality of energy ratios of frequencies corresponding to a plurality of pieces of physiological data; and calculating an average value of the plurality of energy ratios of the frequencies corresponding to the plurality of pieces of physiological data, and using the average value as the energy ratio of the physiological data. obtaining a sample data set collected by a detection device in different scenarios; selecting sample data of a scenario from the sample data set, and dividing the sample data into physiological data and PPG data; calculating an energy ratio of the physiological data based on the physiological data and the PPG data; separately calculating quality evaluation parameters of sample data of a plurality of classified scenarios based on energy ratios of the physiological data corresponding to different scenarios; and evaluating, based on the quality evaluation parameters, quality of a physiological detection signal collected by the detection device; characterised in that calculating the energy ratio of the physiological data based on the physiological data and the PPG data comprises: separately calculating, based on the physiological data and the PPG data, a plurality of energy ratios of frequencies corresponding to a plurality of pieces of physiological data; and calculating an average value of the plurality of energy ratios of the frequencies corresponding to the plurality of pieces of physiological data, and using the average value as the energy ratio of the physiological data. separately calculating, based on the physiological data and the PPG data, a plurality of energy ratios of frequencies corresponding to a plurality of pieces of physiological data; and calculating an average value of the plurality of energy ratios of the frequencies corresponding to the plurality of pieces of physiological data, and using the average value as the energy ratio of the physiological data.
Method for operating a longitudinal driver assistance system of a motor vehicle which controls the speed of the motor vehicle in a purely follow mode such that a distance from a preceding vehicle representing a control object remains constant, and which controls the speed of the motor vehicle in a free-driving mode at a desired speed, a probability of the preceding vehicle pulling out being determined on the basis of sensor data from at least one environment sensor, characterised in that the control in relation to the preceding vehicle and/or the control in the free-driving mode is modified immediately upon termination of the follow mode depending on the pulling-out probability, whereby, in the event that a pulling-out probability exceeds a preparation threshold value and in the event that a speed of the preceding vehicle is slower than the desired speed, a control distance from the preceding vehicle is reduced and/or a positive acceleration value is added to an acceleration request determined by the driver assistance system in the follow mode, or the follow mode is terminated depending on the pulling-out probability, changing from braking to driving being quicker and/or greater acceleration being requested when a pulling-out probability exceeds a situation threshold value upon termination of the follow mode than in the event of another object deplausibility check.
A powder comprising more than 70% of glass-ceramic and/or refractory particles, a particle of said powder being classified in the "matrix" fraction or in the "aggregate" fraction depending on whether it has a size less than or equal to 100 μm, or greater than 100 μm, respectively, the aggregate, representing more than 60% of the powder, comprising: - more than 40% of particles of a glass-ceramic material having a degree of crystallization of greater than 50% and a thermal expansion value measured at 700°C of less than 0.3%, referred to as "glass-ceramic grains"; the glass-ceramic material being a microcrystalline compound obtained by controlled crystallization of a precursor glass, the glass-ceramic material being composed of very fine crystallizations, of average size of less than 1 μm, embedded in a residual glassy phase; - less than 35% of particles made of a refractory material different from a glass-ceramic material, referred to as "refractory grains", the amount of refractory grains being greater than 10% if the aggregate comprises more than 40% of glass-ceramic grains having a thermal expansion value measured at 700°C of less than or equal to 0.15%; the matrix, representing more than 10% of the powder, comprising: - less than 30% of particles made of a refractory material different from a glass-ceramic material, referred to as "fine refractory particles", the amount of fine refractory particles being greater than 5% and, preferably, less than 25%, if the amount of glass-ceramic grains having a degree of crystallization of less than 75% is greater than 5%; - between 0.1% and 18% of particles of a heat-activatable binder, referred to as "fine heat-activatable binder particles"; all the percentages being by weight in relation to the weight of the powder. - more than 40% of particles of a glass-ceramic material having a degree of crystallization of greater than 50% and a thermal expansion value measured at 700°C of less than 0.3%, referred to as "glass-ceramic grains"; the glass-ceramic material being a microcrystalline compound obtained by controlled crystallization of a precursor glass, the glass-ceramic material being composed of very fine crystallizations, of average size of less than 1 μm, embedded in a residual glassy phase; - less than 35% of particles made of a refractory material different from a glass-ceramic material, referred to as "refractory grains", the amount of refractory grains being greater than 10% if the aggregate comprises more than 40% of glass-ceramic grains having a thermal expansion value measured at 700°C of less than or equal to 0.15%; - less than 30% of particles made of a refractory material different from a glass-ceramic material, referred to as "fine refractory particles", the amount of fine refractory particles being greater than 5% and, preferably, less than 25%, if the amount of glass-ceramic grains having a degree of crystallization of less than 75% is greater than 5%; - between 0.1% and 18% of particles of a heat-activatable binder, referred to as "fine heat-activatable binder particles";