mhurhangee/ep-ind-claims huggingface dataset:
Method for joining two fiber-reinforced plastic components, comprising the following steps: • producing a first fiber-reinforced plastic component by introducing a laid scrim of fiber mats which is impregnated with a resin/curing agent mixture, which in turn is subsequently cured; that part of the surface, also called joining surface below, of the first fiber-reinforced plastic component which is later to be bonded to the second fiber-reinforced plastic component is masked with an adhesive tape before the fiber mats are impregnated with the resin/curing agent mixture, • producing a second fiber-reinforced plastic component according to the steps specified above; that part of the surface of the second fiber-reinforced plastic component that is later to be bonded to the first fiber-reinforced plastic component is likewise masked with an adhesive tape before the fiber mats are impregnated with the resin/curing agent mixture, • removing the adhesive tapes from the two completed fiber-reinforced plastic components, • contacting the two joining surfaces, • introducing a resin/curing agent mixture between the two joining surfaces, • curing the resin/curing agent mixture, where the adhesive tape has a carrier film which bears on one side an applied adhesive composition, more particularly a self-adhesive composition, and where the carrier film consists of fluoropolymers, of polyethylene polymers, of unoriented polypropylene or of metal, and the adhesive composition is an acrylate or silicone adhesive composition. • producing a first fiber-reinforced plastic component by introducing a laid scrim of fiber mats which is impregnated with a resin/curing agent mixture, which in turn is subsequently cured; that part of the surface, also called joining surface below, of the first fiber-reinforced plastic component which is later to be bonded to the second fiber-reinforced plastic component is masked with an adhesive tape before the fiber mats are impregnated with the resin/curing agent mixture, • producing a second fiber-reinforced plastic component according to the steps specified above; that part of the surface of the second fiber-reinforced plastic component that is later to be bonded to the first fiber-reinforced plastic component is likewise masked with an adhesive tape before the fiber mats are impregnated with the resin/curing agent mixture, • removing the adhesive tapes from the two completed fiber-reinforced plastic components, • contacting the two joining surfaces, • introducing a resin/curing agent mixture between the two joining surfaces, • curing the resin/curing agent mixture,
A fuel cell assembly comprising a plurality of fuel cells and a holding means, each of the cells having an end forming a gas passage, characterized in that a fixing member for fixing the ends of the cells to said holding means and a sealing member for accomplishing a gas-tight sealing between the ends of the cells and the holding means are arranged between the peripheries of the ends of the cells and the holding means, wherein during operation, the fixing member is in contact to the peripheries of the ends of the cells and the sealing member is softly in contact to the peripheries of the ends of the cells, and in that the sealing member is a glass or a ceramic distinct from the material of the fixing member.
Electrical device having an electrical component at least partly enveloped by an envelope material comprising a cement material, wherein the envelope material also includes particles (24a, 24b) comprising a first material and fibers comprising a second material, where said first material and said second material have a higher coefficient of thermal conductivity than the cement of the cement material; characterized in that the particles (24a, 24b) form a particle mixture having a multitude of particle sizes; and where the particles (24a, 24b) and the fibres are distributed essentially homogeneously in the cement material, where the particle size distribution of the particles (24a, 24b) approximates to the Fuller distribution with a grain size exponent of q = 0.4. the particles (24a, 24b) form a particle mixture having a multitude of particle sizes; and where the particles (24a, 24b) and the fibres are distributed essentially homogeneously in the cement material, where the particle size distribution of the particles (24a, 24b) approximates to the Fuller distribution with a grain size exponent of q = 0.4.
An outdoor unit for a heat-pump hot water dispenser, the outdoor unit comprising: an air heat exchanger to exchange heat between air outside the outdoor unit and a refrigerant; a compressor to compress the refrigerant flowed out of the air heat exchanger; a water heat exchanger to exchange heat between the refrigerant flowed out of the compressor and water; an expansion valve to reduce a pressure of the refrigerant flowed out of the water heat exchanger; a fan to move air outside the outdoor unit into the air heat exchanger; a motor to rotate the fan; a power device used for driving the compressor, the expansion valve, and the motor; a heat sink located in a space that is an extension portion beyond the air heat exchanger, of a channel of air moved by rotation of the fan during heating of the water from outside the outdoor unit into the air heat exchanger, the heat sink dissipating heat generated by the power device during driving of the compressor; and a control unit; characterized in that the control unit is configured to provide control, upon completion of operation of heating of the water, to rotate the fan in a direction opposite to a rotation direction of the fan during heating of the water. an air heat exchanger to exchange heat between air outside the outdoor unit and a refrigerant; a compressor to compress the refrigerant flowed out of the air heat exchanger; a water heat exchanger to exchange heat between the refrigerant flowed out of the compressor and water; an expansion valve to reduce a pressure of the refrigerant flowed out of the water heat exchanger; a fan to move air outside the outdoor unit into the air heat exchanger; a motor to rotate the fan; a power device used for driving the compressor, the expansion valve, and the motor; a heat sink located in a space that is an extension portion beyond the air heat exchanger, of a channel of air moved by rotation of the fan during heating of the water from outside the outdoor unit into the air heat exchanger, the heat sink dissipating heat generated by the power device during driving of the compressor; and a control unit; characterized in that the control unit is configured to provide control, upon completion of operation of heating of the water, to rotate the fan in a direction opposite to a rotation direction of the fan during heating of the water.
A device for operating a power take off through a mechanical gear box in a motor vehicle, the gear box including: - an input shaft, which can be made to rotate by the vehicle motor; - an output shaft connected to driving wheels of the vehicle; and - a kinematic mechanism arranged to transmit to the power take off the rotary movement imparted to the input shaft or to the output shaft, respectively, said rotary movement of the output shaft being imparted either by the rotation of the input shaft or by the vehicle movement; the device being characterised in that said kinematic mechanism includes: - a first ratchet (16, 17) arranged to make integral for rotation in a first direction the input shaft and a first rotating member of a driving system (13, 15, 14) arranged to transmit to the power take off the movement of the input shaft; and - a second ratchet (18, 19) arranged to make integral for the rotation in the first direction a gear operable by the output shaft and a second rotating member of the driving system (13, 15, 14), rigidly connected to the power take off, in order to transmit to the power take off the movement of the output shaft. - an input shaft, which can be made to rotate by the vehicle motor; - an output shaft connected to driving wheels of the vehicle; and - a kinematic mechanism arranged to transmit to the power take off the rotary movement imparted to the input shaft or to the output shaft, respectively, said rotary movement of the output shaft being imparted either by the rotation of the input shaft or by the vehicle movement; - a first ratchet (16, 17) arranged to make integral for rotation in a first direction the input shaft and a first rotating member of a driving system (13, 15, 14) arranged to transmit to the power take off the movement of the input shaft; and - a second ratchet (18, 19) arranged to make integral for the rotation in the first direction a gear operable by the output shaft and a second rotating member of the driving system (13, 15, 14), rigidly connected to the power take off, in order to transmit to the power take off the movement of the output shaft.
A thermoplastic polymer composition comprising: a hydrogenated product of a block copolymer having a polymer block mainly containing α-methylstyrene units and a polymer block mainly containing conjugated diene compound units, in which the block copolymer has a number average molecular weight of 30,000 to 500,000; a hydrogenated product of a block copolymer having a polymer block (A') mainly containing aromatic vinyl compound units other than α-methylstyrene and a polymer block (B') containing conjugated diene compound units in an amount of 90% by mass or more based on the total mass of the polymer block (B'), in which the block copolymer has a number average molecular weight of 15,000 to 500,000 and has a hydroxyl group; a polypropylene-based polymer; and a polyethylene-based polymer at a ratio satisfying the following expressions to, wherein the mass ratio [:] of the component to the component is 10:90 to 90:10: 0.03 ≤ W I / W I + W II + W III + W IV ≤ 0.9 0.03 ≤ W II / W I + W II + W III + W IV ≤ 0.9 0.03 ≤ W III / W I + W II + W III + W IV ≤ 0.9 0.03 ≤ W IV / W I + W II + W III + W IV ≤ 0.9 wherein W, W, W, and W represent the mass contents of the component, the component, the component, and the component in the thermoplastic polymer composition, respectively. a hydrogenated product of a block copolymer having a polymer block mainly containing α-methylstyrene units and a polymer block mainly containing conjugated diene compound units, in which the block copolymer has a number average molecular weight of 30,000 to 500,000; a hydrogenated product of a block copolymer having a polymer block (A') mainly containing aromatic vinyl compound units other than α-methylstyrene and a polymer block (B') containing conjugated diene compound units in an amount of 90% by mass or more based on the total mass of the polymer block (B'), in which the block copolymer has a number average molecular weight of 15,000 to 500,000 and has a hydroxyl group; a polypropylene-based polymer; and a polyethylene-based polymer
A gas-barrier container comprising at least one gas-barrier layer made of an epoxy resin cured product that is formed by curing an epoxy resin composition mainly containing an epoxy resin and an epoxy resin-curing agent, and contains a skeletal structure represented by the formula: in an amount of 30% by weight or higher, wherein the gas-barrier layer has an oxygen permeability of 2 mL· mm/m 2 · day MPa or lower as measured at a temperature of 23°C and a relative humidity of 60%, wherein the epoxy resin contains, as a main component, the epoxy resin containing glycidylamine moieties derived from m-xylylenediamine, characterized in that the epoxy resin-curing agent is a reaction product of m-xylylenediamine with methyl (meth) acrylate, and that the container is in the form of a hollow container in which 60 to 100% of a surface area of at least one of an outer surface and an inner surface thereof is coated with the gas-barrier layer.
A method of capturing aircraft sensor data from an embedded aircraft system, the method comprising: loading a configuration file to a processor; characterized in that the configuration file includes configuration data that defines a data capture event based on data monitored by the processor, a data capture period which defines for said data capture event a time period for which the data captured is stored in a volatile memory, and data identifiers; and wherein the data identifiers include the aircraft sensor data which should be stored in the volatile memory; storing aircraft sensor data based upon the data identifiers in the volatile memory; and upon the processor detecting an occurrence of the data capture event, continuing the storing of aircraft sensor data until the time period is complete and subsequently storing contents of the volatile memory to a non-volatile memory. loading a configuration file to a processor; characterized in that the configuration file includes configuration data that defines a data capture event based on data monitored by the processor, a data capture period which defines for said data capture event a time period for which the data captured is stored in a volatile memory, and data identifiers; and wherein the data identifiers include the aircraft sensor data which should be stored in the volatile memory; storing aircraft sensor data based upon the data identifiers in the volatile memory; and upon the processor detecting an occurrence of the data capture event, continuing the storing of aircraft sensor data until the time period is complete and subsequently storing contents of the volatile memory to a non-volatile memory.
A method of operating a cleaning process on a filter in a vehicle air intake, comprising: - passing air through the filter from an upstream side to a downstream side; - providing an exhaust duct having an inlet end adjacent the upstream side of the filter, an outlet end, and an extraction device (26; 26') to generate an air flow through the exhaust duct from the inlet end to the outlet end; and - repeatedly performing a cleaning subroutine, which cleaning subroutine comprises, in sequence: ∘ increasing the flow of air through the exhaust duct from the inlet end to the outlet end; ∘ applying a pulse of pressurised fluid to a downstream side of the filter; ∘ carrying away by the exhaust duct material dislodged from the upstream side of the filter as a result of the applied pulse; and ∘ decreasing the flow of air through the exhaust duct from the inlet end to the outlet end; - the method further comprising monitoring a filter load of the air filter, comparing the filter load with a filter load threshold, and initiating performance of the cleaning subroutine when the filter load threshold is reached or exceeded; characterized by increasing the filter load threshold after each performance of the cleaning subroutine up to a maximum filter load threshold level. - passing air through the filter from an upstream side to a downstream side; - providing an exhaust duct having an inlet end adjacent the upstream side of the filter, an outlet end, and an extraction device (26; 26') to generate an air flow through the exhaust duct from the inlet end to the outlet end; and - repeatedly performing a cleaning subroutine, which cleaning subroutine comprises, in sequence: ∘ increasing the flow of air through the exhaust duct from the inlet end to the outlet end; ∘ applying a pulse of pressurised fluid to a downstream side of the filter; ∘ carrying away by the exhaust duct material dislodged from the upstream side of the filter as a result of the applied pulse; and ∘ decreasing the flow of air through the exhaust duct from the inlet end to the outlet end; ∘ increasing the flow of air through the exhaust duct from the inlet end to the outlet end; ∘ applying a pulse of pressurised fluid to a downstream side of the filter; ∘ carrying away by the exhaust duct material dislodged from the upstream side of the filter as a result of the applied pulse; and ∘ decreasing the flow of air through the exhaust duct from the inlet end to the outlet end; - the method further comprising monitoring a filter load of the air filter, comparing the filter load with a filter load threshold, and initiating performance of the cleaning subroutine when the filter load threshold is reached or exceeded; characterized by increasing the filter load threshold after each performance of the cleaning subroutine up to a maximum filter load threshold level.
A cell capture system comprising: an array defined on a broad face of a substrate, comprising: a plurality of parallel pores, each pore comprising: a chamber fluidly connected to an inlet channel configured to capture and hold a single cell, wherein each of a chamber length, chamber width and chamber depth is between 25 and 50 microns; and a pore channel fluidly connected to a portion of the chamber distal the inlet channel, the pore channel having a pore channel width between 7 and 10 microns and thereby configured to block egress of the single cell; the inlet channel fluidly connected to each chamber of the plurality of parallel pores at a fluid ingress side; an outlet channel fluidly connected to the pore channels of the plurality of parallel pores at a fluid egress side; an inlet manifold, defined on the broad face of the substrate, fluidly connected to the inlet channel; an outlet manifold, defined on the broad face of the substrate, fluidly connected to the outlet channel; and characterized in that the cell capture system further comprises a cell removal tool configured to perforate the inlet channel and extract the contents of a pore. an array defined on a broad face of a substrate, comprising: a plurality of parallel pores, each pore comprising: a chamber fluidly connected to an inlet channel configured to capture and hold a single cell, wherein each of a chamber length, chamber width and chamber depth is between 25 and 50 microns; and a pore channel fluidly connected to a portion of the chamber distal the inlet channel, the pore channel having a pore channel width between 7 and 10 microns and thereby configured to block egress of the single cell; a chamber fluidly connected to an inlet channel configured to capture and hold a single cell, wherein each of a chamber length, chamber width and chamber depth is between 25 and 50 microns; and a pore channel fluidly connected to a portion of the chamber distal the inlet channel, the pore channel having a pore channel width between 7 and 10 microns and thereby configured to block egress of the single cell; the inlet channel fluidly connected to each chamber of the plurality of parallel pores at a fluid ingress side; an outlet channel fluidly connected to the pore channels of the plurality of parallel pores at a fluid egress side; an inlet manifold, defined on the broad face of the substrate, fluidly connected to the inlet channel; an outlet manifold, defined on the broad face of the substrate, fluidly connected to the outlet channel; and characterized in that the cell capture system further comprises a cell removal tool configured to perforate the inlet channel and extract the contents of a pore.
A method for producing a patterned insulation board used for exterior wall of building by using screen printing, comprising in sequence the following steps of A. producing a metal veneer and a substrate; and B. arranging an insulation layer between the metal veneer and the substrate to form the patterned insulation board; wherein, the process of producing the metal veneer in step A comprises in sequence the following steps of a. producing a metal plate; b. treating the metal plate before printing patterns; c. printing patterns on the metal plate by using screen printing equipment which comprises a screen printing machine used for printing patterns on the metal plate and a printing table used for placing the metal plate to be printed, so as to form the metal veneer; characterized in that, a flattening device is arranged at a bottom of the printing table, and used to flatten a surface of metal plate, prior to the screen printing; the screen printing equipment comprises an infrared ray curing oven for curing the patterns and code bar, which is compatible with the screen printing machine; in the step a, the metal plate is produced by a process comprising in sequence the following steps of: hot rolling steel coils, acid pickling the hot rolled steel coils, cold rolling the acid pickled steel coils, and continuously hot dip galvanizing the cold rolled steel coils to form the metal plate; before printing the patterns, the metal plate is treated by following treatment process of: degreasing treatment, cleaning treatment, first drying treatment, passivating treatment, second drying treatment, coating primer paint treatment, baking for curing treatment, and cooling treatment; in the step B, the patterned insulation board is produced by the following process of: firstly, treating the metal veneer and the substrate respectively by coating, pressing and gluing, and gluing the insulating layer, and then arranging the insulation layer between the metal veneer and the substrate and pressing to form the patterned insulation board; rock wool with a density of 120kg/m 3 is used as the insulation layer, and the fiber orientation of the rock wool is perpendicular to the metal veneer and the substrate; a polyurethane foaming agent is used in the gluing treatment; in the step B, after the insulation layer is arranged between the metal veneer and the substrate and is treated by pressing to form the patterned insulation board, and the polyurethane foaming agent is used for sealing edge of the patterned insulation board. A. producing a metal veneer and a substrate; and B. arranging an insulation layer between the metal veneer and the substrate to form the patterned insulation board; a. producing a metal plate; b. treating the metal plate before printing patterns; c. printing patterns on the metal plate by using screen printing equipment which comprises a screen printing machine used for printing patterns on the metal plate and a printing table used for placing the metal plate to be printed, so as to form the metal veneer;