mhurhangee/ep-ind-claims huggingface dataset:
A liquid-holding container, comprising: a liquid container portion that is flexible and configured to contain a liquid; a hollow vent plug that is connected to the liquid container portion; and a first projecting portion that is provided outside the liquid container portion and connected to the vent plug, the first projecting portion extends in a direction that intersects a face of the liquid container portion; and the liquid-holding container further comprises a second projecting portion that is provided outside the liquid container portion and connected to the vent plug on the opposite side of the vent plug from the first projecting portion, the second projecting portion extending in the direction that intersects the face of the liquid container portion, such that the second projecting portion is opposite the first projecting portion, characterised in that the second projecting portion extending in the same direction as the extending direction of the first projecting portion, wherein a first length is shorter than a second length, the first length being a length of the second projecting portion from a plane that includes an axis of the vent plug to a leading end of the second projecting portion, the second length being a length of the first projecting portion from the plane that includes the axis of the vent plug to a leading end of the first projecting portion, the leading end of the second projecting portion and the leading end of the first projecting portion being positioned at the same side with respect to the plane that includes the axis of the vent plug. a liquid container portion that is flexible and configured to contain a liquid; a hollow vent plug that is connected to the liquid container portion; and a first projecting portion that is provided outside the liquid container portion and connected to the vent plug, the first projecting portion extends in a direction that intersects a face of the liquid container portion; and the liquid-holding container further comprises a second projecting portion that is provided outside the liquid container portion and connected to the vent plug on the opposite side of the vent plug from the first projecting portion, the second projecting portion extending in the direction that intersects the face of the liquid container portion, such that the second projecting portion is opposite the first projecting portion, characterised in that the second projecting portion extending in the same direction as the extending direction of the first projecting portion, wherein a first length is shorter than a second length, the first length being a length of the second projecting portion from a plane that includes an axis of the vent plug to a leading end of the second projecting portion, the second length being a length of the first projecting portion from the plane that includes the axis of the vent plug to a leading end of the first projecting portion, the leading end of the second projecting portion and the leading end of the first projecting portion being positioned at the same side with respect to the plane that includes the axis of the vent plug.
A system for communication between Internet Protocol, IP, devices, in a local area network, LAN, and an external network, through a virtual router, the system comprises: the virtual router, wherein the virtual router comprises multiple actual physical routers (411, 412), one of the physical routers (411, 412) is a master router and the others are backup routers, and each of the physical routers (411, 412) is adapted to send a dynamic routing protocol control packet, wherein the dynamic routing protocol control packet carries a virtual IP address of the virtual router and a Type 9 Link State Advertisement, LSA, carrying a binding relation of the virtual IP address and the actual IP address; and an internal router, adapted to receive the dynamic routing protocol control packet sent by each of the physical routers (411, 412), obtain the virtual IP address of the virtual router according to the dynamic routing protocol control packet and obtain the binding relation of the actual IP Address and the virtual IP address from the Type 9 LSA, use the virtual IP address as a next hop address, and send information to be sent to the external network to the virtual router; wherein, the master router in the virtual router is adapted to receive the information. the virtual router, wherein the virtual router comprises multiple actual physical routers (411, 412), one of the physical routers (411, 412) is a master router and the others are backup routers, and each of the physical routers (411, 412) is adapted to send a dynamic routing protocol control packet, wherein the dynamic routing protocol control packet carries a virtual IP address of the virtual router and a Type 9 Link State Advertisement, LSA, carrying a binding relation of the virtual IP address and the actual IP address; and an internal router, adapted to receive the dynamic routing protocol control packet sent by each of the physical routers (411, 412), obtain the virtual IP address of the virtual router according to the dynamic routing protocol control packet and obtain the binding relation of the actual IP Address and the virtual IP address from the Type 9 LSA, use the virtual IP address as a next hop address, and send information to be sent to the external network to the virtual router; wherein, the master router in the virtual router is adapted to receive the information.
A system for reconfiguring an atrioventricular heart valve, which system comprises: an annuloplasty ring (41, 97) having a size and shape proportioned to reconfigure a heart valve of a patient that has become in some way incompetent, a pair of trigonal sutures or implantable anchors, and a plurality of staples having pairs of legs that are sized and shaped for association with said ring at spaced locations along the length thereof; wherein: said annuloplasty ring is fenestrated, having a plurality of spaced-apart elongated windows, each of which can receive one leg of one of said staples in a manner that permits relative axial movement between said staples and said ring, whereby a patient's heart valve can be reconfigured in a manner that does not deter subtle shifting of the native valve components. an annuloplasty ring (41, 97) having a size and shape proportioned to reconfigure a heart valve of a patient that has become in some way incompetent, a pair of trigonal sutures or implantable anchors, and a plurality of staples having pairs of legs that are sized and shaped for association with said ring at spaced locations along the length thereof; wherein: said annuloplasty ring is fenestrated, having a plurality of spaced-apart elongated windows, each of which can receive one leg of one of said staples in a manner that permits relative axial movement between said staples and said ring, whereby a patient's heart valve can be reconfigured in a manner that does not deter subtle shifting of the native valve components. said annuloplasty ring is fenestrated, having a plurality of spaced-apart elongated windows, each of which can receive one leg of one of said staples in a manner that permits relative axial movement between said staples and said ring, whereby a patient's heart valve can be reconfigured in a manner that does not deter subtle shifting of the native valve components.
A wetsuit comprising: at least one first panel exhibiting high-stretch and adapted to provide buoyancy to the wearer; at least one second panel exhibiting low-stretch and adapted to provide further buoyancy to the wearer; wherein the at least one first panel and the at least one second panel are fastened together by at least one seam; characterized in that the at least one second panel is arranged according to the muscular configuration of the wearer to stimulate muscular relaxation velocity of the wearer, in that the at least one second panel is located along specific muscles of the wearer in order to increase the relaxation velocity of said specific muscles and in that second panels form one-dimensional strips having a length being at least 5 times greater than their width. at least one first panel exhibiting high-stretch and adapted to provide buoyancy to the wearer; at least one second panel exhibiting low-stretch and adapted to provide further buoyancy to the wearer; wherein the at least one first panel and the at least one second panel are fastened together by at least one seam; characterized in that the at least one second panel is arranged according to the muscular configuration of the wearer to stimulate muscular relaxation velocity of the wearer, in that the at least one second panel is located along specific muscles of the wearer in order to increase the relaxation velocity of said specific muscles and in that second panels form one-dimensional strips having a length being at least 5 times greater than their width.
Method for transporting asphalt from an asphalt plant for producing asphalt to an asphalt paver for applying asphalt to a road surface; wherein use is made of at least one elongate, insulated asphalt container; wherein the elongate shape of the asphalt container defines a first longitudinal end and a second longitudinal end and a longitudinal centre axis extends between the first longitudinal end and the second longitudinal end; characterized, in that the asphalt container comprises a filling/discharge port which is configured for filling the asphalt container with asphalt, on the one hand, and for discharging asphalt from the asphalt container, on the other hand, which filling/discharge port is provided in the first longitudinal end of the asphalt container; and wherein the method comprises the following steps: Step A: In an asphalt plant, filling the at least one asphalt container with asphalt via its filling/discharge port, Step E: Discharging asphalt from the asphalt container into an asphalt paver via the filling/discharge port, while the longitudinal centre axis of the asphalt container is at a discharging angle (β) with respect to the horizontal during discharging in such a way that, viewed in vertical direction, the first longitudinal end is lower than the second longitudinal end. wherein, during filling such as according to step A, the longitudinal centre axis of the asphalt container is at a filling angle (α) with respect to the horizontal which is such that, viewed in vertical direction, the first longitudinal end is higher than the second longitudinal end. Step A: In an asphalt plant, filling the at least one asphalt container with asphalt via its filling/discharge port, Step E: Discharging asphalt from the asphalt container into an asphalt paver via the filling/discharge port, while the longitudinal centre axis of the asphalt container is at a discharging angle (β) with respect to the horizontal during discharging in such a way that, viewed in vertical direction, the first longitudinal end is lower than the second longitudinal end.
Electric axle, E-axle, for vehicles, comprising: - a gear mechanism; - an electric machine which is designed to drive the gear mechanism and has a first machine-side coolant connection (9.1) and a second machine-side coolant connection (9.2); and - a power electronics system which is designed to actuate the electric machine and has an electronics system-side coolant inlet, to which a vehicle-side coolant circuit can be connected in a fluid-conducting manner, and an electronics system-side coolant outlet; characterized in that the power electronics system is arranged on an end side of the electric machine either in a first orientation or in a second orientation, wherein, in the first orientation, the electronics system-side coolant outlet is connected in a fluid-conducting manner to the first machine-side coolant connection (9.1) and can be connected in a fluid-conducting manner to the second machine-side coolant connection (9.2) of the vehicle-side coolant circuit, and wherein, in the second orientation, the electronics system-side coolant outlet is connected in a fluid conducting manner to the second machine-side coolant connection (9.2) and can be connected in a fluid-conducting manner to the first machine-side coolant connection (9.1) of the vehicle-side coolant circuit. - a gear mechanism; - an electric machine which is designed to drive the gear mechanism and has a first machine-side coolant connection (9.1) and a second machine-side coolant connection (9.2); and - a power electronics system which is designed to actuate the electric machine and has an electronics system-side coolant inlet, to which a vehicle-side coolant circuit can be connected in a fluid-conducting manner, and an electronics system-side coolant outlet; characterized in that the power electronics system is arranged on an end side of the electric machine either in a first orientation or in a second orientation, wherein, in the first orientation, the electronics system-side coolant outlet is connected in a fluid-conducting manner to the first machine-side coolant connection (9.1) and can be connected in a fluid-conducting manner to the second machine-side coolant connection (9.2) of the vehicle-side coolant circuit, and wherein, in the second orientation, the electronics system-side coolant outlet is connected in a fluid conducting manner to the second machine-side coolant connection (9.2) and can be connected in a fluid-conducting manner to the first machine-side coolant connection (9.1) of the vehicle-side coolant circuit.
A work implement having a holding fixture for fixing the work implement to a structural object, characterized in that: the work implement is operated by an electric battery or a commercial electric power source, and the work implement comprises: a flexible wire; a hooking tool anchored to one end of the wire and hooked on the structural object; a body to which the other end of the wire is attached; and a housing hole in which the wire is housed, wherein the work implement is constructed so that the wire can be pulled out from the housing hole, wherein in the housing hole, the other end of the wire is attached to the work implement so that the wire can move in a length direction of the housing hole. the work implement is operated by an electric battery or a commercial electric power source, and the work implement comprises: a flexible wire; a hooking tool anchored to one end of the wire and hooked on the structural object; a body to which the other end of the wire is attached; and a housing hole in which the wire is housed, a flexible wire; a hooking tool anchored to one end of the wire and hooked on the structural object; a body to which the other end of the wire is attached; and a housing hole in which the wire is housed, wherein the work implement is constructed so that the wire can be pulled out from the housing hole, wherein in the housing hole, the other end of the wire is attached to the work implement so that the wire can move in a length direction of the housing hole.
A heat pump system for heating and/or cooling rooms, said heat pump system being supplied by electrical energy at least in part originating from an electrical energy self-generation system and comprising at least one heat source capable of heating and/or cooling a heat-carrying fluid, usually water, radiating panels in fluid-dynamic connection with the heat source to receive the heat-carrying fluid by means of at least a first delivery duct, said radiating panels being configured to heat and/or cool the room wherein they are adapted to be placed, by radiative heat, further comprising at least one fan coil in fluid-dynamic connection with the heat source to receive the heat-carrying fluid by means of at least a second delivery duct, actuation means of the at least one fan coil, humidity and/or temperature sensors and a control unit of the heat pump system in communication with the heat source, the actuation means and the sensors, and configured to drive the actuation means of the at least one fan coil, directly or by means of the same at least one fan coil, so as to obtain a heating and/or cooling effect alternatively or in addition to the heating and/or cooling effect induced by the radiating panels characterized in that the control unit is configured to actuate the at least one fan coil when surplus power generated by the electrical energy self-generation system is available and the radiating panels are not capable of entirely absorbing the power exported from the electrical energy self-generation system through the heat pump system or, vice versa, to actuate the radiating panels when the at least one fan coil is not capable of entirely absorbing the power exported from the electrical energy self-generation system.
A noise-cancellation system, comprising: a noise sensor for providing a noise signal indicative of undesired noise; a controller arranged and configured to generate a noise-cancellation signal and transmit the noise-cancellation signal to a speaker, which transduces the noise-cancellation signal to acoustic energy; a speed sensor within or mounted to a vehicle, which is arranged and configured to transmit a speed signal to the controller, wherein a speed of the vehicle is determined based on the speed signal; a reference sensor arranged and configured to detect residual noise resulting from the combination of the acoustic energy of the noise-cancellation signal and the undesired noise, and to generate a reference sensor signal based on the detection of residual noise; an adaptive processing module configured to receive the reference sensor signal and the noise signal, and to generate a filter update signal; and an adaptive filter having one or more filter coefficients, the adaptive filter configured to receive the filter update signal, wherein the controller is configured to prevent transmission of the noise-cancellation signal to the speaker when the speed signal is within the first condition, wherein in the first condition, the speed signal indicates a speed below a minimum threshold, the system characterized in that the adaptive filter is further configured to prevent adjustment of the one or more filter coefficients based on the filter update signal if the speed signal is within the first condition. a noise sensor for providing a noise signal indicative of undesired noise; a controller arranged and configured to generate a noise-cancellation signal and transmit the noise-cancellation signal to a speaker, which transduces the noise-cancellation signal to acoustic energy; a speed sensor within or mounted to a vehicle, which is arranged and configured to transmit a speed signal to the controller, wherein a speed of the vehicle is determined based on the speed signal; a reference sensor arranged and configured to detect residual noise resulting from the combination of the acoustic energy of the noise-cancellation signal and the undesired noise, and to generate a reference sensor signal based on the detection of residual noise; an adaptive processing module configured to receive the reference sensor signal and the noise signal, and to generate a filter update signal; and an adaptive filter having one or more filter coefficients, the adaptive filter configured to receive the filter update signal, wherein the controller is configured to prevent transmission of the noise-cancellation signal to the speaker when the speed signal is within the first condition, wherein in the first condition, the speed signal indicates a speed below a minimum threshold, the system characterized in that the adaptive filter is further configured to prevent adjustment of the one or more filter coefficients based on the filter update signal if the speed signal is within the first condition.
A polyimide-based polymer thick film paste composition for forming a solderable polyimide-based polymer thick film conductor, the paste composition comprising: (a) 60-95 wt% of an electrically conductive metal powder; (b) 2-6 wt% of a polyimide polymer; (c) 0.10-0.35 wt% of polydimethylsiloxane and (d) an organic solvent, wherein the wt% are based on the total weight of the paste composition, the electrically conductive metal powder and the polydimethylsiloxane is dispersed in and the polyimide polymer is dissolved in the organic solvent and the ratio of the weight of the electrically conductive metal powder to the weight of the polyimide polymer is between 13 and 40. (a) 60-95 wt% of an electrically conductive metal powder; (b) 2-6 wt% of a polyimide polymer; (c) 0.10-0.35 wt% of polydimethylsiloxane and (d) an organic solvent,
A method for separating an alkyl aromatic hydrocarbon comprising: a step of adding a first diluent and an extractant comprising a superacid to a mixture comprising the alkyl aromatic hydrocarbon and one or more isomers thereof to carry out an acid-base extraction to thereby form a complex of the alkyl aromatic hydrocarbon with the superacid, and thereafter separating the complex from the mixture; and a step of adding an eliminating agent having a relative basicity in a range of 0.06 to 10 with respect to the alkyl aromatic hydrocarbon and a second diluent to the complex, and carrying out a complex exchange of the alkyl aromatic hydrocarbon for the eliminating agent to thereby separate the alkyl aromatic hydrocarbon from the complex, wherein the relative basicity of the eliminating agent A 2 with respect to the alkyl aromatic hydrocarbon A 1 is defined as a value calculated from the following expression at a liquid temperature of 0°C: Relative basicity = ( the number of moles of A 2 H + / the number of moles of A 2) / ( the number of moles of A 1 H + / the number of moles of A 1). a step of adding a first diluent and an extractant comprising a superacid to a mixture comprising the alkyl aromatic hydrocarbon and one or more isomers thereof to carry out an acid-base extraction to thereby form a complex of the alkyl aromatic hydrocarbon with the superacid, and thereafter separating the complex from the mixture; and a step of adding an eliminating agent having a relative basicity in a range of 0.06 to 10 with respect to the alkyl aromatic hydrocarbon and a second diluent to the complex, and carrying out a complex exchange of the alkyl aromatic hydrocarbon for the eliminating agent to thereby separate the alkyl aromatic hydrocarbon from the complex, wherein the relative basicity of the eliminating agent A 2 with respect to the alkyl aromatic hydrocarbon A 1 is defined as a value calculated from the following expression at a liquid temperature of 0°C: