mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a component, comprising the steps of: a) providing at least one epoxy resin and/or the constituents forming the epoxy resin, or providing at least one epoxy resin and/or the constituents forming the epoxy resin and at least one reactive diluent, b) providing at least one epoxy resin hardening agent, c) providing at least one porous particular inorganic filler material, f) blending epoxy resin or epoxy resin and reactive diluent or the constituents forming the epoxy resin or the constituents forming the epoxy resin and reactive diluent and epoxy resin hardening agent and porous particular inorganic filler material in such a way that the epoxy resin or the epoxy resin and the reactive diluent is/are not or is/are not completely cured, i) introducing the mixture obtained in step f) into a mould vessel, k) applying heat and pressing pressure to the mixture present in the mould vessel, wherein the pressing pressure is adjusted such that at least a part of the porous particular inorganic filler material in the mould vessel is reduced to fragments, and wherein this reduction in size takes place before and/or while the epoxy resin or the epoxy resin and the reactive diluent cure(s) due to the action of the epoxy resin hardening agent or due to the action of the epoxy resin hardening agent and heat, wherein the pressing pressure is greater than 1.0 N/mm 2, and l) removing the component from the mould vessel. a) providing at least one epoxy resin and/or the constituents forming the epoxy resin, or providing at least one epoxy resin and/or the constituents forming the epoxy resin and at least one reactive diluent, b) providing at least one epoxy resin hardening agent, c) providing at least one porous particular inorganic filler material, f) blending epoxy resin or epoxy resin and reactive diluent or the constituents forming the epoxy resin or the constituents forming the epoxy resin and reactive diluent and epoxy resin hardening agent and porous particular inorganic filler material in such a way that the epoxy resin or the epoxy resin and the reactive diluent is/are not or is/are not completely cured, i) introducing the mixture obtained in step f) into a mould vessel, k) applying heat and pressing pressure to the mixture present in the mould vessel, wherein the pressing pressure is adjusted such that at least a part of the porous particular inorganic filler material in the mould vessel is reduced to fragments, and wherein this reduction in size takes place before and/or while the epoxy resin or the epoxy resin and the reactive diluent cure(s) due to the action of the epoxy resin hardening agent or due to the action of the epoxy resin hardening agent and heat, wherein the pressing pressure is greater than 1.0 N/mm 2, and l) removing the component from the mould vessel.
Valve assembly, comprising a valve support and a plurality of electrically actuated valves arranged consecutively on the outside of the valve support in a line-up direction, wherein, in the interior of the valve support, there is formed a reception passage which accommodates a control circuit board equipped with at least one electronic control unit and extending in the line-up direction, to which circuit board the installed valves are electrically contacted for the reception of electric actuating signals required for their operation, and which circuit board is provided with control interfacing means for the reception of electric control signals responsible for the generation of the actuating signals, and wherein electric supply lines for a power supply of the valves which is independent of the supply of the control signals are accommodated in the interior of the valve support, characterised in that the electric supply lines are represented by current-conducting bars (53a, 53b) which are separate from the control circuit board and secured to the valve support independently of the control circuit board, extending in the line-up direction adjacent to the control circuit board and electrically contacted to the control circuit board by pickup contact means.
A method, comprising: establishing based on an encrypted verification message, via an intermediary mobile electronic device, an indirect secure communication channel between an implantable medical device system and a central system; the indirect secure communication channel is used to authorize a user to wirelessly control one or more functions of the implantable medical device system via the mobile electronic device, the method further comprises: sending identification information from the implantable medical device system to the central system via the intermediary mobile electronic device, wherein the identification information includes a serial number of a component of the implantable medical device system and implantable medical device system nonce data; using the implantable medical device system nonce data to generate the encrypted verification message that includes nonce data specific to the central system; and sending the encrypted verification message to the implantable medical device system via the intermediary mobile electronic device. establishing based on an encrypted verification message, via an intermediary mobile electronic device, an indirect secure communication channel between an implantable medical device system and a central system; the indirect secure communication channel is used to authorize a user to wirelessly control one or more functions of the implantable medical device system via the mobile electronic device, the method further comprises: sending identification information from the implantable medical device system to the central system via the intermediary mobile electronic device, wherein the identification information includes a serial number of a component of the implantable medical device system and implantable medical device system nonce data; using the implantable medical device system nonce data to generate the encrypted verification message that includes nonce data specific to the central system; and sending the encrypted verification message to the implantable medical device system via the intermediary mobile electronic device. sending identification information from the implantable medical device system to the central system via the intermediary mobile electronic device, wherein the identification information includes a serial number of a component of the implantable medical device system and implantable medical device system nonce data; using the implantable medical device system nonce data to generate the encrypted verification message that includes nonce data specific to the central system; and sending the encrypted verification message to the implantable medical device system via the intermediary mobile electronic device.
A spinning fishing reel including a spool for holding fishing line, a mainshaft and a housing, said housing including a front and a rear, said mainshaft extending through the spool and into the housing and being configured for rotational and longitudinal movement along an axis extending from front to rear of the housing, said longitudinal movement being driven by an oscillation system within the housing, the spinning fishing reel further including a drag assembly comprising: a collar engaged with the mainshaft of the reel, said collar being fixed to the mainshaft for rotational movement with the mainshaft, but being fixed with respect to the housing against longitudinal movement with the mainshaft, said mainshaft thereby being free to oscillate longitudinally through the collar; a brake for engagement with the collar, said brake having a brake surface, wherein said brake surface is configured to make selective contact with the collar to create a frictional force against rotation of the collar, and thereby against rotation of the mainshaft, characterized in that said collar is located in front of said oscillation system. a collar engaged with the mainshaft of the reel, said collar being fixed to the mainshaft for rotational movement with the mainshaft, but being fixed with respect to the housing against longitudinal movement with the mainshaft, said mainshaft thereby being free to oscillate longitudinally through the collar; a brake for engagement with the collar, said brake having a brake surface, wherein said brake surface is configured to make selective contact with the collar to create a frictional force against rotation of the collar, and thereby against rotation of the mainshaft,
A combined additive manufacturing and machining system, comprising: an outer chamber; an additive manufacturing tool positioned within the outer chamber; a machining tool positioned within the outer chamber; and characterized by a cryogenic fluid source in communication with the machining tool; and in that the machining tool comprises a tool head, and the tool head comprises a cooling nozzle in communication with the cryogenic fluid source; and the cryogenic fluid source is configured to supply cryogenic fluid such that, upon evaporation, the cryogenic fluid supplied by the cryogenic fluid source provides an inert atmosphere for the additive manufacturing tool. an outer chamber; an additive manufacturing tool positioned within the outer chamber; a machining tool positioned within the outer chamber; and characterized by a cryogenic fluid source in communication with the machining tool; and in that the machining tool comprises a tool head, and the tool head comprises a cooling nozzle in communication with the cryogenic fluid source; and the cryogenic fluid source is configured to supply cryogenic fluid such that, upon evaporation, the cryogenic fluid supplied by the cryogenic fluid source provides an inert atmosphere for the additive manufacturing tool.
A pet sheet for receiving excrement of a pet comprising: a top sheet having a nonwoven fabric forming region, a back sheet overlaid on the top sheet, an absorber provided between the top sheet and the back sheet, a covering sheet having a thermoplastic nonwoven fabric forming region and provided between the top sheet and the absorber to cover the absorber, wherein the covering sheet includes meltblow nonwoven fabric and has a three-layer structure having spun-bond nonwoven fabric sheets (132, 133) overlaid on both sides of the meltblow nonwoven fabric sheet, and a tear preventing structure provided in the covering sheet to prevent the covering sheet from being torn by the pet, and wherein the covering sheet forms a spread preventing part for preventing spread of urine. a top sheet having a nonwoven fabric forming region, a back sheet overlaid on the top sheet, an absorber provided between the top sheet and the back sheet, a covering sheet having a thermoplastic nonwoven fabric forming region and provided between the top sheet and the absorber to cover the absorber, wherein the covering sheet includes meltblow nonwoven fabric and has a three-layer structure having spun-bond nonwoven fabric sheets (132, 133) overlaid on both sides of the meltblow nonwoven fabric sheet, and a tear preventing structure provided in the covering sheet to prevent the covering sheet from being torn by the pet, and wherein the covering sheet forms a spread preventing part for preventing spread of urine.
A system, comprising: a metrology device attached to an operating tool arm and configured to measure, for a cycle of movement of the operating tool arm along a programmed path, metrology values for a workpiece associated with a manufacturing machine comprising the operating tool arm; an encoder configured to convert the metrology values into encoded metrology values comprising a format compatible with the manufacturing machine; and a computer component configured to log the encoded metrology values in association with coordinate values generated by the manufacturing machine during the cycle of movement, wherein the coordinate values represent respective positions or orientations of the operating tool arm over time for the cycle of movement, wherein the encoder is further configured to generate an index signal that increments periodically at a first frequency, wherein the first frequency is higher than a second frequency at which the encoded metrology values are logged. a metrology device attached to an operating tool arm and configured to measure, for a cycle of movement of the operating tool arm along a programmed path, metrology values for a workpiece associated with a manufacturing machine comprising the operating tool arm; an encoder configured to convert the metrology values into encoded metrology values comprising a format compatible with the manufacturing machine; and a computer component configured to log the encoded metrology values in association with coordinate values generated by the manufacturing machine during the cycle of movement, wherein the coordinate values represent respective positions or orientations of the operating tool arm over time for the cycle of movement, wherein the encoder is further configured to generate an index signal that increments periodically at a first frequency, wherein the first frequency is higher than a second frequency at which the encoded metrology values are logged.
Solenoid valve, in particular for a liquid-controlled heating and/or cooling system, having a valve housing, which has at least three channels (12, 14, 15) which are formed in each case as an inflow or outflow channel, and having an electromagnetically switched first valve element, which is fastened together with an armature on a unipartite valve shank and which, in a first switching position, produces the connection between the first channel and the third channel and, in a second switching position, blocks said connection, wherein the valve shank protrudes with the armature into an armature chamber which is at least intermittently flowed through by liquid via a movement gap and via an axial channel in the valve shank, wherein, between the first channel and the second channel, there is provided a second valve element which interacts by means of a second valve cone with a second valve seat in the valve housing, wherein the second valve element, in the second switching position, produces the connection between the first channel and the second channel and, in the first switching position, blocks said connection, and wherein the first valve element interacts by means of a first valve cone with a first valve seat, characterized in that the armature chamber is connected via the movement gap and via the axial channel to the third channel on that side of the first valve element which faces toward the armature chamber, wherein the third channel is formed as a tributary channel, wherein the first valve cone and the second valve cone are of unipartite form, wherein the unipartite valve cone comprises a valve shank receptacle, and wherein the unipartite valve shank is inserted into the valve shank receptacle.
A three-dimensional object shaping device for shaping a three-dimensional object that is a laminated body of hardened layers made of a shaping material, in a horizontal shaping area which holds the shaping material hardened by irradiation of a light beam, wherein the three-dimensional object shaping device comprises plural pairs of shaping units, each shaping unit comprising: an irradiation device which irradiates the light beam to an irradiation area in the shaping area from above the shaping area; a movable shaping table which has the shaping area that is larger than the irradiation area; and a moving device which moves the shaping table in a horizontal direction so as to change a position of the irradiation area in the shaping area, wherein: the thickness of the layer of the shaping material is 5-50μm; the square measures of the shaping areas S1 to the square measures of the irradiation area S2 is 1.5 ≤ (S1/S2) ≤ 3.0; the moving devices are configured to increase the acceleration of the respective shaping table as the mean or total mass of the shaping material increases, and are configured to move in one horizontal direction X; and the plural pairs of shaping units are juxtaposed in a horizontal direction Y orthogonal to the horizontal direction X and are operated independently of each other. an irradiation device which irradiates the light beam to an irradiation area in the shaping area from above the shaping area; a movable shaping table which has the shaping area that is larger than the irradiation area; and a moving device which moves the shaping table in a horizontal direction so as to change a position of the irradiation area in the shaping area, wherein: the thickness of the layer of the shaping material is 5-50μm; the square measures of the shaping areas S1 to the square measures of the irradiation area S2 is 1.5 ≤ (S1/S2) ≤ 3.0; the moving devices are configured to increase the acceleration of the respective shaping table as the mean or total mass of the shaping material increases, and are configured to move in one horizontal direction X; and the plural pairs of shaping units are juxtaposed in a horizontal direction Y orthogonal to the horizontal direction X and are operated independently of each other. the thickness of the layer of the shaping material is 5-50μm; the square measures of the shaping areas S1 to the square measures of the irradiation area S2 is 1.5 ≤ (S1/S2) ≤ 3.0; the moving devices are configured to increase the acceleration of the respective shaping table as the mean or total mass of the shaping material increases, and are configured to move in one horizontal direction X; and the plural pairs of shaping units are juxtaposed in a horizontal direction Y orthogonal to the horizontal direction X and are operated independently of each other.
A method of subjecting a lithium metal secondary battery to a controlled charge/discharge condition, the lithium metal secondary battery comprising: an electrode assembly comprising a negative electrode, a positive electrode and a separator interposed between the negative electrode and the positive electrode; a non-aqueous electrolyte with which the electrode assembly is impregnated; and a battery casing in which the electrode assembly and the non-aqueous electrolyte are received, wherein the negative electrode comprises a negative electrode current collector and a lithium metal layer formed on at least one surface of the negative electrode current collector, the charge/discharge condition of the lithium metal secondary battery comprises charging the lithium metal secondary battery under a pressurized state and discharging the lithium metal secondary battery under a non-pressurized or pressurized state, and when the lithium secondary battery is discharged under a pressurized state, the pressure applied during discharge is controlled to be smaller than the pressure applied during charge, wherein the pressure applied during charge is 276-689 kPa (40-100 psi). an electrode assembly comprising a negative electrode, a positive electrode and a separator interposed between the negative electrode and the positive electrode; a non-aqueous electrolyte with which the electrode assembly is impregnated; and a battery casing in which the electrode assembly and the non-aqueous electrolyte are received, wherein the negative electrode comprises a negative electrode current collector and a lithium metal layer formed on at least one surface of the negative electrode current collector, the charge/discharge condition of the lithium metal secondary battery comprises charging the lithium metal secondary battery under a pressurized state and discharging the lithium metal secondary battery under a non-pressurized or pressurized state, and when the lithium secondary battery is discharged under a pressurized state, the pressure applied during discharge is controlled to be smaller than the pressure applied during charge, wherein the pressure applied during charge is 276-689 kPa (40-100 psi).
Optical apparatus comprising at least one first converging lens and at least one second converging lens, and an optical power limiter, which has nonlinear attenuation and contains carbon nanohorns, wherein the optical power limiter is arranged in an intermediate focus between the first lens and the second lens. at least one first converging lens and at least one second converging lens, and an optical power limiter, which has nonlinear attenuation and contains carbon nanohorns, wherein the optical power limiter is arranged in an intermediate focus between the first lens and the second lens.
A chip comprising: an upper substrate and a lower substrate arranged oppositely, a transparent electrode layer attached to the lower substrate, and a switching layer between the lower substrate and the upper substrate, wherein a plurality of micropores insulated from each other are provided on a surface of the upper substrate facing away from the lower substrate, each micropore having an ion-sensitive film on a bottom thereof, wherein the ion-sensitive film is capable of inducing a Nernst potential in a presence of ions, wherein the switching layer is configured for switching between a first state and a second state responsive to an electric field generated between the ion-sensitive film and the transparent electrode layer, wherein the switching layer comprises a bistable cholesteric liquid crystal layer, and the chip further comprises a first alignment film and a second alignment film, wherein the first alignment film is located on a surface of the lower substrate facing the upper substrate, the second alignment film is located on a surface of the upper substrate facing the lower substrate, or wherein the switching layer comprises an electrochromic layer, the electrochromic layer exhibiting different colors in the first state and the second state. an upper substrate and a lower substrate arranged oppositely, a transparent electrode layer attached to the lower substrate, and a switching layer between the lower substrate and the upper substrate, wherein a plurality of micropores insulated from each other are provided on a surface of the upper substrate facing away from the lower substrate, each micropore having an ion-sensitive film on a bottom thereof, wherein the ion-sensitive film is capable of inducing a Nernst potential in a presence of ions, wherein the switching layer is configured for switching between a first state and a second state responsive to an electric field generated between the ion-sensitive film and the transparent electrode layer, wherein the switching layer comprises a bistable cholesteric liquid crystal layer, and the chip further comprises a first alignment film and a second alignment film, wherein the first alignment film is located on a surface of the lower substrate facing the upper substrate, the second alignment film is located on a surface of the upper substrate facing the lower substrate, or wherein the switching layer comprises an electrochromic layer, the electrochromic layer exhibiting different colors in the first state and the second state.
A base station configured to communicate, in a network, with a neighbouring base station in a procedure to exchange information between the base station and the neighbouring base station, the base station comprising: a controller (357, 457a, 457b) configured to generate network slicing related information for transmission, wherein the network slicing related information for transmission comprises: information identifying at least one slice type for at least one tenant of the network, said at least one slice type being supported by the base station; and a transceiver (351, 451a, 451b) configured to transmit, to the neighbouring base station, a setup request message, for initiating base station to base station interface setup, which includes the information identifying the at least one slice type for the at least one tenant of the network. information identifying at least one slice type for at least one tenant of the network, said at least one slice type being supported by the base station; and a transceiver (351, 451a, 451b) configured to transmit, to the neighbouring base station, a setup request message, for initiating base station to base station interface setup, which includes the information identifying the at least one slice type for the at least one tenant of the network.