mhurhangee/ep-ind-claims huggingface dataset:
A rocking piston type compressor in which a piston rod is rockingly slidable within a cylinder, the compressor comprising: a lip ring configured to seal between the cylinder and piston rod, the lip ring being provided on a leading end portion of the piston rod and including a bottom portion in a circular plate shape and a lip portion extending from an entire peripheral edge of the bottom portion to an upper side in a height direction; and an expansion member (30, 40, 50, 60) provided on an inside of the lip portion and configured to outwardly expand the lip portion at a side of an upper portion in the height direction of the lip portion, characterized in that the expansion member comprises a crown-shaped member including a circular-shaped base portion and a plurality of rising pieces respectively rising from a peripheral edge of the base portion, and wherein the rising pieces respectively comprise plate springs outwardly expanding gradually toward open end portions of the rising pieces. a lip ring configured to seal between the cylinder and piston rod, the lip ring being provided on a leading end portion of the piston rod and including a bottom portion in a circular plate shape and a lip portion extending from an entire peripheral edge of the bottom portion to an upper side in a height direction; and an expansion member (30, 40, 50, 60) provided on an inside of the lip portion and configured to outwardly expand the lip portion at a side of an upper portion in the height direction of the lip portion, characterized in that the expansion member comprises a crown-shaped member including a circular-shaped base portion and a plurality of rising pieces respectively rising from a peripheral edge of the base portion, and wherein the rising pieces respectively comprise plate springs outwardly expanding gradually toward open end portions of the rising pieces.
A method, in a Mobility Management Entity, MME, (22, 36), for delivery of non-Internet Protocol, non-IP, data, comprising: receiving a Non-Internet Protocol Data Delivery, NIDD, submit request comprising non-IP data and an identifier of a wireless device to which the non-IP data is to be delivered; upon determining that the wireless device is not reachable, sending a NIDD submit response that indicates that the non-IP data was not delivered to the wireless device; and upon determining that the wireless device is reachable, sending a NIDD submit indication towards a Service Capability Exposure Function, SCEF, or an Inter-Working SCEF, IWK-SCEF, indicating that the wireless device is reachable. receiving a Non-Internet Protocol Data Delivery, NIDD, submit request comprising non-IP data and an identifier of a wireless device to which the non-IP data is to be delivered; upon determining that the wireless device is not reachable, sending a NIDD submit response that indicates that the non-IP data was not delivered to the wireless device; and upon determining that the wireless device is reachable, sending a NIDD submit indication towards a Service Capability Exposure Function, SCEF, or an Inter-Working SCEF, IWK-SCEF, indicating that the wireless device is reachable.
Method for operating a combustion machine having an internal combustion engine, a fresh-gas tract, an exhaust-gas tract and a cooling system which comprises a surroundings heat exchanger and a cooling channel (26, 28) of the internal combustion engine, wherein a NOx storage catalytic converter and/or a particle filter are integrated into the exhaust-gas tract, and wherein, as a measure for desulphurizing the NOx storage catalytic converter and/or for regenerating the particle filter, the temperature of the exhaust gas flowing through the exhaust-gas tract is temporarily set to at least a minimum value required for this, characterized in that, before and/or during the measure for desulphurizing the NOx storage catalytic converter and/or for regenerating the particle filter, by means of an increase of the cooling power for the coolant flowing in the cooling system, the temperature of the coolant at a location downstream of the surroundings heat exchanger and/or upstream of the internal combustion engine is lowered to a value range which lies below that which is provided at said location without the measure for desulphurizing the NOx storage catalytic converter and/or for regenerating the particle filter in a corresponding operating state of the internal combustion engine.
A flexible adhesive composition for filling a joint seam between two abutting panels and covering some panel surface around the seam, the flexible adhesive composition comprising: polyethylene fibers, rayon fibers, or any combination thereof, wherein the fibers are in the amount from 2.5% to 25% by weight, based on the total composition weight; a binder, wherein the binder is a polymeric resin in the amount from 1 % to 50% resin solids, based on the total composition weight; wherein the polymeric resin is a film-forming polymer selected from the group consisting of ethylene vinyl acetate polymers, styrene/acrylic polymers, acrylic polymers, polyurethanes and vinyl/acrylic polymers; water in the amount from 25% to 75% by weight, based on the total composition weight; at least one thickener in the amount from 0.1 % to 2% by weight, based on the total composition weight; wherein the thickener is selected from the group consisting of cellulosic thickeners, gelling clays, associative thickeners and any combination thereof; and wherein the composition has a pH in the range from 7.0 to 12; wherein the composition further comprises a filler selected from calcium carbonate, limestone, gypsum, nepheline syenite, titanium dioxide, lithophone, wollastonite, bismuth oxychloride, talc, clay, and any mixture thereof in the amount from 0.5% to 75% by weight, based on the total composition weight; and wherein the composition further optionally comprises surfactant, dispersant, humectant and biocide. polyethylene fibers, rayon fibers, or any combination thereof, wherein the fibers are in the amount from 2.5% to 25% by weight, based on the total composition weight; a binder, wherein the binder is a polymeric resin in the amount from 1 % to 50% resin solids, based on the total composition weight; wherein the polymeric resin is a film-forming polymer selected from the group consisting of ethylene vinyl acetate polymers, styrene/acrylic polymers, acrylic polymers, polyurethanes and vinyl/acrylic polymers; water in the amount from 25% to 75% by weight, based on the total composition weight; at least one thickener in the amount from 0.1 % to 2% by weight, based on the total composition weight; wherein the thickener is selected from the group consisting of cellulosic thickeners, gelling clays, associative thickeners and any combination thereof; and wherein the composition has a pH in the range from 7.0 to 12; wherein the composition further comprises a filler selected from calcium carbonate, limestone, gypsum, nepheline syenite, titanium dioxide, lithophone, wollastonite, bismuth oxychloride, talc, clay, and any mixture thereof in the amount from 0.5% to 75% by weight, based on the total composition weight; and wherein the composition further optionally comprises surfactant, dispersant, humectant and biocide.
Measuring instrument (9, 22, 36) having an ultrasonic measuring unit (10, 23, 37), wherein the measuring instrument (9, 22, 36) is configured so that it can be arranged on a movement axle of a machine, wherein an ultrasonic measurement can be carried out by means of the ultrasonic measuring unit (10, 23, 37) in the arranged state of the ultrasonic measuring unit (10, 23, 37) on the measuring instrument (9, 22, 36), wherein the ultrasonic measuring unit (10, 23, 37) comprises a tubular sleeve (27, 46) and a resilient support element (26, 45), wherein the tubular sleeve (27, 46) encloses the resilient support element (26, 45), wherein the resilient support element (26, 45) consists of a material that conducts ultrasound waves, wherein the resilient support element (26, 45) protrudes beyond an outer edge (31, 50) of the tubular sleeve (27, 46) at a first end of the tubular sleeve (27, 46), wherein the tubular sleeve (27, 46) and the resilient support element (26, 45) are intended to directly contact the surface to be measured during a sampling process of the measuring instrument (9, 22, 36), wherein the measuring instrument (9, 22, 36) has a tactile sensor unit (39, 40), wherein a sampling event between the measuring instrument (9, 22, 36) and a surface to be measured is detectable by means of the tactile sensor unit (39, 40), wherein the tubular sleeve (27, 46) is arranged in a manner mounted movably on the measuring instrument (9, 22, 36), wherein a relative movement of the tubular sleeve (27, 46) relative to the measuring instrument (9, 22, 36) triggers the sampling event.
A method of generating video game character images in a 3D video game in which multiple characters, including a player character, are drawn in a virtual three-dimensional space either as a three-dimensional character by three-dimensional polygon data or as a two-dimensional character by two-dimensional sprite data, the method comprising the steps of: drawing a character that satisfies a predetermined two-dimensional display condition (S204:Y) as a two-dimensional character among the characters positioned in the view frustum of a virtual camera of the virtual three-dimensional space; and drawing a character that does not satisfy the two-dimensional display condition (S204:N) as a three-dimensional character among the characters positioned in the view frustum of the virtual camera of the virtual three-dimensional space; wherein the two-dimensional display condition (S204:Y) is satisfied either: - in the case where the amount of luminance of the virtual three-dimensional space when displaying the character is a predetermined value or less; or - in the case where the character is apart from the player character by a predefined three-dimensional display distance or more, characterized in that a character satisfying (S202, S203) a predefined non-display condition is not drawn in the virtual three-dimensional space among characters positioned in the view frustum of the virtual camera of the virtual three-dimensional space. wherein the non-display condition (S202:Y) is satisfied in the case where the character is apart from the player character by a predefined non-display distance or more in which the non-display distance is longer than the three-dimensional display distance; the drawn character images being used for displaying a conversation field in which the player character is allowed to have a conversation with other characters. drawing a character that satisfies a predetermined two-dimensional display condition (S204:Y) as a two-dimensional character among the characters positioned in the view frustum of a virtual camera of the virtual three-dimensional space; and drawing a character that does not satisfy the two-dimensional display condition (S204:N) as a three-dimensional character among the characters positioned in the view frustum of the virtual camera of the virtual three-dimensional space; wherein the two-dimensional display condition (S204:Y) is satisfied either: - in the case where the amount of luminance of the virtual three-dimensional space when displaying the character is a predetermined value or less; or - in the case where the character is apart from the player character by a predefined three-dimensional display distance or more, - in the case where the amount of luminance of the virtual three-dimensional space when displaying the character is a predetermined value or less; or - in the case where the character is apart from the player character by a predefined three-dimensional display distance or more,
Portable power tool having a tool housing in which there is arranged a transmission for transmitting a torque generated by a drive motor to a drive spindle to which a spindle locking device is assigned, wherein the drive spindle has at least one radial depression (222, 224) in which at least one spindle roller (254, 258) assigned to the spindle locking device is arranged, characterized in that the drive spindle is rotatably mounted in the tool housing at at least two bearing points (132, 134); wherein the at least one radial depression (222, 224) is arranged immediately between the two bearing points (132, 134) in the axial direction of the drive spindle, and at least two entrainment elements (282, 284, 286, 288) for transmitting the torque generated by the drive motor to the drive spindle are arranged in the drive spindle, wherein at least two entrainment elements (282, 284, 286, 288) engage at least regionally into at least one radial depression (222, 224).
A mud motor apparatus possessing one single drive shaft that turns a rotary drill bit, which apparatus is attached to a drill pipe that is a source of high pressure mud to said apparatus, wherein said drive shaft receives at least a first portion of its rotational torque from any high pressure mud flowing through a first hydraulic chamber within said apparatus, and said drive shaft receives at least a second portion of its rotational torque from any high pressure mud flowing through a second hydraulic chamber within said apparatus.
A method for producing an ethylene/tetrafluoroethylene copolymer molded product comprising a substrate made of a material containing at least 50 mass% of an ethylene/tetrafluoroethylene copolymer, and a fluorine-doped silicon oxide film formed on the surface of the substrate, characterized by supplying electric power between electrodes so that the electrical power density between the electrodes becomes from 0.5 to 1.1 W/cm 3 to cause discharge and thus to plasmatize the following mixed gas so as to form the silicon oxide film on the substrate: Mixed gas comprising silicon tetrafluoride, oxygen and a hydrocarbon, wherein the atomic ratio of oxygen atoms to carbon atoms (O/C) is from 1 to 10, and the atomic ratio of oxygen atoms to silicon atoms (O/Si) is from 1.7 to 25. Mixed gas comprising silicon tetrafluoride, oxygen and a hydrocarbon, wherein the atomic ratio of oxygen atoms to carbon atoms (O/C) is from 1 to 10, and the atomic ratio of oxygen atoms to silicon atoms (O/Si) is from 1.7 to 25.
A method of preparing a liquid solution having a predicted conductivity by mixing ingredients according to a predetermined recipe with relative component proportions determined using said predicted conductivity, wherein the liquid solution comprises a plurality of species, at least one pair of species being derived from a weak electrolyte and corresponding to an acid-base pair, and wherein the conductivity of the liquid solution is predicted by: (i) for each pair of species derived from a weak electrolyte, solving a respective equilibrium equation to calculate from said predetermined recipe the actual molar concentration of each such species, including all ionic species derived from the weak electrolyte, at equilibrium in the liquid solution, (ii) calculating for each ionic species of said plurality of species the molar conductivity by the formula: Λ = Λ 0 − K × Sqrt c wherein Λ is the molar conductivity, Λ 0 is the molar conductivity at infinite dilution, c is the concentration of the ionic species, and K is the Kohlrausch coefficient, and wherein K and Λ 0 are obtained from a data set comprising predetermined values for K and Λ 0 for each ionic species, (iii) calculating the conductivity κ for each ionic species by the formula: κ = c × Λ wherein c and Λ are as defined above, and (iv) adding up the conductivities determined in step (iii) for the different ionic species to obtain the predicted conductivity of the liquid solution, wherein the concentration of each ionic species is calculated by an algorithm comprising the equation of Debye-Huckel, wherein the ionic strength of each species is used as a weighting parameter in the calculation of an average hydrated radius of the ionic species. (i) for each pair of species derived from a weak electrolyte, solving a respective equilibrium equation to calculate from said predetermined recipe the actual molar concentration of each such species, including all ionic species derived from the weak electrolyte, at equilibrium in the liquid solution, (ii) calculating for each ionic species of said plurality of species the molar conductivity by the formula: Λ = Λ 0 − K × Sqrt c wherein Λ is the molar conductivity, Λ 0 is the molar conductivity at infinite dilution, c is the concentration of the ionic species, and K is the Kohlrausch coefficient, and wherein K and Λ 0 are obtained from a data set comprising predetermined values for K and Λ 0 for each ionic species, (iii) calculating the conductivity κ for each ionic species by the formula: κ = c × Λ wherein c and Λ are as defined above, and (iv) adding up the conductivities determined in step (iii) for the different ionic species to obtain the predicted conductivity of the liquid solution,
A computer-implemented method of protocol processing comprising a main program code, the main program code comprising instructions for processing different protocol elements (MAC SA, MAC DA) of data packets of a data packet stream of a transport protocol, wherein a data packet of the data packet stream has a header and a payload and the header keeps overhead information about the packet, a service and other transmission-related data, and wherein the protocol elements correspond to the overhead information, the main program code comprising multiple code segments, the method comprising the steps of: assigning a latency requirement and/or bandwidth requirement to the code segments of the main program code, compiling each of the code segments according to the assigned latency and/or bandwidth requirement into a respective target code for executing each of the target codes in hardware and by software by different processors (P1, P11, P12, P13, P2) depending on the specific requirements set for the code segments of the main program code, wherein the processors have different processing capabilities, for processing protocol elements of a first type (MAC DA) by the first processor according to the first target code, and for processing protocol elements of a second type (MAC SA) by the second processor according to the second target code, wherein the first and second type of protocol elements are different, and distributing the target code to the respective processor (P1, P11, P12, P13, P2) for executing the target code. assigning a latency requirement and/or bandwidth requirement to the code segments of the main program code, compiling each of the code segments according to the assigned latency and/or bandwidth requirement into a respective target code for executing each of the target codes in hardware and by software by different processors (P1, P11, P12, P13, P2) depending on the specific requirements set for the code segments of the main program code, wherein the processors have different processing capabilities, for processing protocol elements of a first type (MAC DA) by the first processor according to the first target code, and for processing protocol elements of a second type (MAC SA) by the second processor according to the second target code, wherein the first and second type of protocol elements are different, and distributing the target code to the respective processor (P1, P11, P12, P13, P2) for executing the target code.
A method for recycling iron and aluminum from a nickel-cobalt-manganese solution, comprising the following steps: performing leaching and copper removal on a battery powder to obtain a copper-removed solution, and removing iron and aluminum by adjusting a pH value in stages to obtain a goethite slag and an iron-aluminum slag respectively, wherein the removing iron and aluminum by adjusting a pH value in stages comprises: adding a neutralizer, controlling the pH value to 2-4, and heating for a reaction, to obtain the goethite slag; and adding a neutralizer, adjusting the pH value to 4-5, and heating for a reaction, to obtain the iron-aluminum slag and an iron-removed solution; wherein the goethite slag is washed and dried to obtain a goethite product; mixing the iron-aluminum slag with an alkaline solution, and heating and stirring, to obtain an aluminum-containing solution and an alkaline residue; and heating and stirring the aluminum-containing solution, introducing carbon dioxide, and controlling the pH value to 9.5-11.5, ending the reaction when the pH value is stable, to obtain aluminum hydroxide and an aluminum-removed solution; wherein after the aluminum-containing solution and the alkaline residue are obtained, the method further comprises returning the alkaline residue to the acid leaching procedure; and the aluminum-removed solution is used as the neutralizer and returned to the system for removing iron and aluminum in stages, wherein, the aluminum-containing solution is a sodium metaaluminate solution. performing leaching and copper removal on a battery powder to obtain a copper-removed solution, and removing iron and aluminum by adjusting a pH value in stages to obtain a goethite slag and an iron-aluminum slag respectively, wherein the removing iron and aluminum by adjusting a pH value in stages comprises: adding a neutralizer, controlling the pH value to 2-4, and heating for a reaction, to obtain the goethite slag; and adding a neutralizer, adjusting the pH value to 4-5, and heating for a reaction, to obtain the iron-aluminum slag and an iron-removed solution; wherein the goethite slag is washed and dried to obtain a goethite product; mixing the iron-aluminum slag with an alkaline solution, and heating and stirring, to obtain an aluminum-containing solution and an alkaline residue; and heating and stirring the aluminum-containing solution, introducing carbon dioxide, and controlling the pH value to 9.5-11.5, ending the reaction when the pH value is stable, to obtain aluminum hydroxide and an aluminum-removed solution; wherein after the aluminum-containing solution and the alkaline residue are obtained, the method further comprises returning the alkaline residue to the acid leaching procedure; and the aluminum-removed solution is used as the neutralizer and returned to the system for removing iron and aluminum in stages,