mhurhangee/ep-ind-claims huggingface dataset:
A valve mechanism, comprising: a housing including a valve seat that is formed at the outer side, in the radial direction, of an opening at one end of a fluid channel; a drive valve arranged to be movable in a direction of being contacted to and apart from the valve seat; a plate-shaped valve body made of an elastic material having an opening through which fluid passes as being arranged between the valve seat and the drive valve; and a valve positioning member that causes the valve body to face the valve seat via a predetermined gap with respect to the valve seat; and a drive valve moving mechanism that causes the gap between an inner circumference of the valve body and the valve seat to be variable by moving the drive valve in a direction of approaching the valve seat and elastically deforming the valve body in a direction that the inner circumference of the valve body approaches the valve seat, characterized in that the valve mechanism further comprises a plurality of the valve bodies (71A, 71B); and a spacer sandwiched between the plurality of valve bodies. a housing including a valve seat that is formed at the outer side, in the radial direction, of an opening at one end of a fluid channel; a drive valve arranged to be movable in a direction of being contacted to and apart from the valve seat; a plate-shaped valve body made of an elastic material having an opening through which fluid passes as being arranged between the valve seat and the drive valve; and a valve positioning member that causes the valve body to face the valve seat via a predetermined gap with respect to the valve seat; and a drive valve moving mechanism that causes the gap between an inner circumference of the valve body and the valve seat to be variable by moving the drive valve in a direction of approaching the valve seat and elastically deforming the valve body in a direction that the inner circumference of the valve body approaches the valve seat, characterized in that the valve mechanism further comprises a plurality of the valve bodies (71A, 71B); and a spacer sandwiched between the plurality of valve bodies.
Closure cap for a container, comprising an internal skirt provided with a bore comprising at least one helical screw thread for screwing said cap onto the container, an external skirt radially surrounding said internal skirt at least partially, and a front wall from which said internal and external skirts extend, the cap being produced by moulding at least one synthetic material, characterized in that at least one recess is formed on an outer surface of the internal skirt, remaining axially away from a front end face of said skirt.
A device for airing out blankets and the like comprising a crosspiece, which is adapted to be connected to a bed structure, having at least two adjoining tubular profiles (3, 4) connected by one end, and pivoting about an axis parallel to the crosspiece, characterized in that a spring element being placed in each tubular profile, said spring element of each first tubular profile (3,4) extending through at least one second tubular profile (7, 8) and connecting it to a first tubular profile (3, 4), the second tubular profiles being connected to a surface of a support for a blanket or the like and pivoting about an axis parallel to the surface of a support and an element being fixed on the first and the second tubular profiles, to form a seat for the tubular profile to be fixed, which is adapted to fix the first tubular profiles (3, 4) to the second tubular profiles (7, 8), the first tubular profiles being laterally adjacent to each other, and the second tubular profiles being laterally adjacent to each other, and the first tubular profiles being vertically aligned with their respective second tubular profiles.
A method, performed by a proxy node, for forwarding data to a wireless terminal, the method comprising the steps of: receiving data on a link between a core network and a backhaul hub node, said data being addressed to said wireless terminal served by, or handed over from, a serving network node connected to said backhaul hub node; detecting (S104b) a mobility event of said wireless terminal, wherein said mobility event is indicated by a sequence number status transfer message; buffering (S106a) said data, wherein said data is buffered in response to having detected the mobility event; receiving a first indication to forward said data to a target network node of the wireless terminal; forwarding said data towards said target network node in response thereto; and receiving a further indication from said serving network node to stop forwarding said data to said target network node, wherein said data is forwarded towards said target network node until said further indication is received. receiving data on a link between a core network and a backhaul hub node, said data being addressed to said wireless terminal served by, or handed over from, a serving network node connected to said backhaul hub node; detecting (S104b) a mobility event of said wireless terminal, wherein said mobility event is indicated by a sequence number status transfer message; buffering (S106a) said data, wherein said data is buffered in response to having detected the mobility event; receiving a first indication to forward said data to a target network node of the wireless terminal; forwarding said data towards said target network node in response thereto; and receiving a further indication from said serving network node to stop forwarding said data to said target network node, wherein said data is forwarded towards said target network node until said further indication is received.
A combined-cycle co-generation installation comprising: - a combustion unit adapted to generate electrical power, said combustion unit having an exhaust gas outlet, - an HRSG having an exhaust gas inlet connected to the exhaust gas outlet of the combustion unit so as to enable exhaust gas from the combustion unit to be supplied to the HRSG via said exhaust gas inlet, said HRSG further comprising: ∘ a flue gas outlet, ∘ a process water inlet, a steam outlet and a water/steam flow path connecting the process water inlet to the steam outlet, said water/steam flow path including an evaporator, ∘ a combustion oxidant inlet, a fuel inlet, at least one supplementary fire burner connected to said fuel inlet, - an oxidant preheater connected to the combustion oxidant inlet, the installation being characterized in that said oxidant preheater is adapted for heating combustion oxidant upstream of the combustion oxidant inlet by heat exchange with the process water upstream of the evaporator. - a combustion unit adapted to generate electrical power, said combustion unit having an exhaust gas outlet, - an HRSG having an exhaust gas inlet connected to the exhaust gas outlet of the combustion unit so as to enable exhaust gas from the combustion unit to be supplied to the HRSG via said exhaust gas inlet, said HRSG further comprising: ∘ a flue gas outlet, ∘ a process water inlet, a steam outlet and a water/steam flow path connecting the process water inlet to the steam outlet, said water/steam flow path including an evaporator, ∘ a combustion oxidant inlet, a fuel inlet, at least one supplementary fire burner connected to said fuel inlet, ∘ a flue gas outlet, ∘ a process water inlet, a steam outlet and a water/steam flow path connecting the process water inlet to the steam outlet, said water/steam flow path including an evaporator, ∘ a combustion oxidant inlet, a fuel inlet, at least one supplementary fire burner connected to said fuel inlet, - an oxidant preheater connected to the combustion oxidant inlet,
A poly(ether-carbonate)-based polymer comprising urethane, urea, or urethane-urea groups, hard segments, and soft segments, wherein the soft segments comprise poly(ether-carbonate) residues and at least one of polyisobutylene residues and hydrogenated polybutadiene residues, and the hard segments comprise diisocyanate residues and optionally chain extender residues.
A routing method between base stations, comprising: receiving, by a first serving gateway, a first user data packet of first user equipment, UE, sent by a first base station, and determining, according to the first user data packet, whether the first serving gateway serves both the first UE and second UE, wherein the second UE is a communication peer end of the first UE; and if the first serving gateway determines that the first serving gateway serves both the first UE and the second UE, triggering, by the first serving gateway, the first base station to acquire first routing information required for direct communication with a second base station, and triggering, by the first serving gateway, the second base station to acquire second routing information required for direct communication with the first base station, the first routing information and the second routing information are used for the first base station and the second base station to establish a direct connection, wherein the second base station serves the second UE. receiving, by a first serving gateway, a first user data packet of first user equipment, UE, sent by a first base station, and determining, according to the first user data packet, whether the first serving gateway serves both the first UE and second UE, wherein the second UE is a communication peer end of the first UE; and if the first serving gateway determines that the first serving gateway serves both the first UE and the second UE, triggering, by the first serving gateway, the first base station to acquire first routing information required for direct communication with a second base station, and triggering, by the first serving gateway, the second base station to acquire second routing information required for direct communication with the first base station, the first routing information and the second routing information are used for the first base station and the second base station to establish a direct connection, wherein the second base station serves the second UE.
A method comprising: creating meeting-session data based at least in part on one or more applications running on one or more devices (104, 106) connected to a meeting session (400, 500, 600), wherein the meeting-session data comprises one or more device IDs corresponding to the one or more devices (104, 106), and further wherein the meeting-session data comprises data linking the one or more applications to the one or more device IDs; storing the meeting-session data in a database; pausing the meeting session (400, 500, 600), wherein pausing the meeting session (400, 500, 600) comprises disconnecting the one or more devices (104, 106) from the meeting session (400, 500, 600); and resuming the meeting session (400, 500, 600), wherein resuming the meeting session (400, 500, 600) comprises: configuring at least one of the one or more devices (104, 106) to run at least one of the one or more applications using the meeting-session data; and joining the configured devices (104, 106) to the resumed meeting session (400, 500, 600). creating meeting-session data based at least in part on one or more applications running on one or more devices (104, 106) connected to a meeting session (400, 500, 600), wherein the meeting-session data comprises one or more device IDs corresponding to the one or more devices (104, 106), and further wherein the meeting-session data comprises data linking the one or more applications to the one or more device IDs; storing the meeting-session data in a database; pausing the meeting session (400, 500, 600), wherein pausing the meeting session (400, 500, 600) comprises disconnecting the one or more devices (104, 106) from the meeting session (400, 500, 600); and resuming the meeting session (400, 500, 600), wherein resuming the meeting session (400, 500, 600) comprises: configuring at least one of the one or more devices (104, 106) to run at least one of the one or more applications using the meeting-session data; and joining the configured devices (104, 106) to the resumed meeting session (400, 500, 600). configuring at least one of the one or more devices (104, 106) to run at least one of the one or more applications using the meeting-session data; and joining the configured devices (104, 106) to the resumed meeting session (400, 500, 600).
A carbamate compound represented by the formula: wherein, R 1 represents a hydrogen atom or a C1-C3 alkyl group; R 2, R 3, R 4 and R 5 each independently represents a hydrogen atom, a halogen atom, a C1-C3 alkyl group optionally having one or more halogen atoms, a C3-C4 cycloalkyl group optionally having one or more halogen atoms or a C1-C3 alkoxy group optionally having one or more halogen atoms; Z 1 represents a C1-C3 alkyl group; and m represents any one of integers from 1 to 3. R 1 represents a hydrogen atom or a C1-C3 alkyl group; R 2, R 3, R 4 and R 5 each independently represents a hydrogen atom, a halogen atom, a C1-C3 alkyl group optionally having one or more halogen atoms, a C3-C4 cycloalkyl group optionally having one or more halogen atoms or a C1-C3 alkoxy group optionally having one or more halogen atoms; Z 1 represents a C1-C3 alkyl group; and m represents any one of integers from 1 to 3.
A fluid drainage device (10; 10A; 10B) for use in a closed wound drainage system which includes a body, with a cylindrical bore which defines at least part of a fluid-receiving volume, an inlet to the fluid-receiving volume, a piston, in sealing contact with the bore, which partly bounds the fluid-receiving volume, the piston being movable between a first position and a second position, a piston rod which extends from the piston, an energy storage device engaged with the piston rod, a user-actuated handle mechanism which is movable relative to the body in a first direction, to allow the piston to move from the first position, whereby energy is stored in the energy storage device, to the second position, whereby energy is released from the energy storage device, thereby increasing the size of the fluid-receiving volume, reducing the pressure in the fluid-receiving volume and allowing fluid to flow from a suitable conduit through the inlet and into the fluid-receiving volume, characterized in that the piston is movable in the bore against a frictional fore which is at a maximum value at the beginning of a working stroke of the piston and which is at a minimum value at an end of the working stroke of the piston and which decreases as the piston moves over its working stroke from the maximum value to the minimum value.
A method for avoiding entrapment of air bubbles in a lens forming material, in particular in a low viscosity lens forming material, in an ophthalmic lens manufacturing process using mold halves (2; 3) each having a lens forming surface (21; 31), said method including the step of providing an electrostatic charge on a predetermined portion of said lens forming surface (21; 31) of at least one of said mold halves (2; 3) prior to said predetermined portion of said lens forming surface (21; 31) coming into contact with said lens forming material, characterized in that said electrostatic charge is provided on said predetermined portion of said lens forming surface (21; 31) of said at least one mold half (2; 3) by contacting said predetermined portion of said lens forming surface (21; 31) of said at least one mold half (2; 3) with a stamp made of a material which is located sufficiently far away in the triboelectric series from the material said at least one mold half (2; 3) is made of such that upon contact of said stamp and said predetermined portion of said lens forming surface (21; 31) said electrostatic charge is provided on said predetermined portion of said lens forming surface (21; 31), wherein said predetermined portion of said lens forming surface (21; 31) is a central portion of said lens forming surface (21; 31), with the area contacted by said stamp having a diameter ranging from about 1 mm to about 10 mm.
A method of forming a protective coating on a surface of a light metal-containing article, wherein at least a portion of the article is fabricated from a metal that contains not less than 50% by weight aluminum, said method comprising: A) providing an anodizing solution comprised of water and one or more additional components selected from the group consisting of water-soluble and water-dispersible complex fluorides and oxyfluorides of elements selected from the group consisting of Ti and/or Zr; B) providing a cathode in contact with said anodizing solution; C) placing said light metal-containing article as an anode in said anodizing solution; and D) passing a pulsed direct current between the anode and cathode through said anodizing solution for a time effective to form said protective coating on said surface, wherein the pulsed direct current has a peak voltage of not more 500 V and wherein during that time a visible light-emitting discharge is generated on said surface of the light metal-containing article. A) providing an anodizing solution comprised of water and one or more additional components selected from the group consisting of water-soluble and water-dispersible complex fluorides and oxyfluorides of elements selected from the group consisting of Ti and/or Zr; B) providing a cathode in contact with said anodizing solution; C) placing said light metal-containing article as an anode in said anodizing solution; and D) passing a pulsed direct current between the anode and cathode through said anodizing solution for a time effective to form said protective coating on said surface, wherein the pulsed direct current has a peak voltage of not more 500 V and wherein during that time a visible light-emitting discharge is generated on said surface of the light metal-containing article.
A high-power semiconductor laser, comprising a mounting block, an insulation plate, a cathode metal plate, an anode metal plate, and a semiconductor laser chip, characterized in that the mounting block has a step on one side, the mounting block has bosses on two ends, the bosses have vertical screwed holes, the anode of the chip is soldered to the middle section on an upper side of the insulation plate, the lower side of the insulation plate contacts the mounting block at a location between the two bosses, the inner end of the cathode metal plate and the inner end of the anode metal plate are soldered with a cathode insulation plate and an anode insulation plate, respectively, the cathode insulation plate and the anode insulation plate are soldered on the step of the mounting block, a metal connecting plate or wire is connected to a cathode of the chip, one end of the metal connecting plate or wire is connected with the cathode metal plate, the insulation plate and the anode metal plate are tightly bonded together using a conductive material.
An oral care instrument comprising: at least one oral care agent; a wear indicator; and a head; characterised in that the at least one oral care agent is provided in a removable member secured to the head, which removable member is configured to function as the wear indicator. at least one oral care agent; a wear indicator; and a head;
A needle-free injection device for administering a medicinal product to an animal, the injection device comprising: - a container receiving receptacle adapted for receiving a container for containing the medicinal product to be administered; - a dispensing mechanism for causing the medicinal product in the container to be injected when said mechanism is operated; characterised by - a RFID system associated with the container receiving receptacle capable of communicating with a RFID tag associated with the container and enabling an administration of the medicinal product under given conditions, wherein the RFID system comprises an antenna arranged at least partially covering the RFID tag; and - a contact sensor for operating the dispensing mechanism when the injection device is pressed onto an animal's skin. - a container receiving receptacle adapted for receiving a container for containing the medicinal product to be administered; - a dispensing mechanism for causing the medicinal product in the container to be injected when said mechanism is operated; characterised by - a RFID system associated with the container receiving receptacle capable of communicating with a RFID tag associated with the container and enabling an administration of the medicinal product under given conditions, wherein the RFID system comprises an antenna arranged at least partially covering the RFID tag; and - a contact sensor for operating the dispensing mechanism when the injection device is pressed onto an animal's skin.
An air-conditioner refrigerant injecting method of injecting a specified amount of refrigerant into a closed-cycle refrigerant circuit in which an outdoor unit and a plurality of indoor units (11,12,13,14,15,16) are connected via refrigerant pipes, characterized in that the pipe lengths and pipe diameters of the refrigerant pipes connecting the outdoor unit and the plurality of indoor units (11,12,13,14,15,16) installed on the respective floors of a structure are measured or estimated, a minimum required refrigerant amount required by the air conditioner is calculated on the basis of the pipe lengths and the pipe diameters measured or estimated, the minimum required refrigerant amount is injected into the refrigerant circuit before an automatic injection, and then a remaining amount of the refrigerant is automatically injected by an automatic refrigerant injection function until the specified injection amount is reached.