mhurhangee/ep-ind-claims huggingface dataset:
A method for uplink power control of a wireless device in a radio communication network, the method comprising: - obtaining information pertaining to at least two items of the following items (a) to (c): (a) radio resource utilisation of a serving wireless access point and at least one neighbouring wireless access point, (b) downlink geometry which indicates an experienced radio position of the wireless device with respect to the serving wireless access point and the at least one neighbouring wireless access point, and (c) uplink performance of the wireless device, and - selecting an uplink power control algorithm between a first type of uplink power control algorithm and a second type of uplink power control algorithm based on the obtained information, wherein the first type of uplink power control algorithm comprises single-cell factors associated with the serving wireless access point and the second type of uplink power control algorithm comprises multi-cell factors associated with the serving wireless access point and the at least one neighbouring wireless access point, wherein selecting the uplink power control algorithm based on the obtained information comprises evaluating the obtained information against one or more corresponding threshold values, and wherein the information pertaining to the at least two items comprises information pertaining to items (b) and (c), and wherein when the downlink geometry is above a geometry threshold and when the uplink performance of the wireless device is above a performance threshold, then an uplink power control algorithm which is of the second type and based on multi-cell downlink geometry is selected. - obtaining information pertaining to at least two items of the following items (a) to (c): (a) radio resource utilisation of a serving wireless access point and at least one neighbouring wireless access point, (b) downlink geometry which indicates an experienced radio position of the wireless device with respect to the serving wireless access point and the at least one neighbouring wireless access point, and (c) uplink performance of the wireless device, and - selecting an uplink power control algorithm between a first type of uplink power control algorithm and a second type of uplink power control algorithm based on the obtained information, wherein the first type of uplink power control algorithm comprises single-cell factors associated with the serving wireless access point and the second type of uplink power control algorithm comprises multi-cell factors associated with the serving wireless access point and the at least one neighbouring wireless access point,
Device for connecting a plastic tube to a connection nipple, wherein the connection end, provided with an end-side chamfer at least in the region of the inner diameter, of a plastic tube is axially retained between the connection nipple and a clamping sleeve with the interposition of at least one sealing ring held in a profiled connection nipple, wherein the connection nipple comprises at least one radially outwardly protruding stop which can be displaced radially inwardly by means of the end-side chamfer in the region of the inner diameter of the connection end, wherein the stop is arranged in front of the sealing ring as seen in the insertion direction, characterised in that the stops are formed by the free ends of radially resilient spring lugs which protrude counter to the slideon direction of the plastic tube.
A passive barrier (10, 10', 10") for mitigating blast waves and decelerating incident material to reduce the risk of sympathetic explosions at reduced stand-off distances, wherein the barrier is constructed of a shock absorbing foam material characterized in that the carrier is configured to redirect the force of an incident blast wave and reduce the momentum of any incident material.
A positive displacement pump (15, 115) comprising: a drive shaft passing through a gearbox and being detachably connected to a first rotor, the drive shaft being rotatively coupled to a driven shaft, the driven shaft being detachably connected to a second rotor, the first and second rotors being disposed in a pump casing, the pump casing being disposed between a head cover and the gearbox, the drive and driven shafts passing through first and second mechanical seals (53, 54) respectively that are sandwiched between the first and second rotors and the gear box respectively, wherein the first and second rotors each comprise a central hub for accommodating the drive and driven shafts respectively, each central hub comprising a distal end directed towards the head cover and a proximal end directed towards the gear box, the proximal ends of the central hubs of the first and second rotors each being connected to an annular section that connects its respective proximal end to at least one radially outwardly directed wing, characterised in that the first and second rotors each comprise an annular slot (63, 64) between their respective central hubs and its respective wing, the head cover comprising first and second cup-shaped structures (56, 57) with first and second cylindrical walls (61, 62), and the annular slots of the first and second rotors receiving the first and second cylindrical walls of the head cover respectively, wherein removal of the head cover and the first and second rotors from the drive and driven shafts respectively provides access to the first and second mechanical seals. a drive shaft passing through a gearbox and being detachably connected to a first rotor, the drive shaft being rotatively coupled to a driven shaft, the driven shaft being detachably connected to a second rotor,
A vehicle suspension comprising a quadrangular frame with a wheel block kinematically attached to each corner section thereof, thus forming two pairs of wheels - front and rear ones, characterized in that the longitudinal and transverse coupling cables (2, 3) in housings, respectively, are attached to the sides of the frame so that they are adapted to move along the sides of the frame, each wheel block consists of a body connected with two coupling cables (2, 3) simultaneously, parallel horizontal arms (5, 6) are movably mounted on said body, the first arm is attached to the body with its middle part, a knuckle with a wheel hub is attached to one end of the first arm and to another end of the second arm, two coupling cable dampers are attached to another end of the first arm, coupling cable housings are attached on the body of the corresponding wheel block, a free end of each cable (2, 3) is fixed in a damper, spring stabilizers of the wheel position of the wheel block are put on end sections of cables (2, 3) protruding from the housings in front of the damper, and each coupling cable (2, 3) is provided with a linear actuator, the casing of said linear actuator being rigidly attached to the body of the wheel block and adapted to allow changes in the relative position of the coupling cables housings and the body of the wheel block.
A method of injection moulding a polymeric resin to form an article, the method comprising: providing a polymeric resin comprising a thermoplastic polyester elastomer; heating the resin to form a molten resin at a temperature of at least about 240°C; injecting the molten resin into a mould (22, 23, 27) of a moulding apparatus to substantially fill the mould and form an article, wherein at least part of the article is a sheet part with a plurality of elongate members (2063a, 2063b) that are integrally formed into the sheet part, with apertures provided between at least some of the members (2063a, 2063b) of the sheet part to form a mesh, wherein the elongate members have a length, a cross-sectional width, and a cross-sectional depth, and wherein the cross-sectional width and the cross-sectional depth of at least some of the elongate members is about 2.5 mm or less; and removing the formed article from the mould (22, 23, 27), wherein at least the sheet part of the formed article is suitable for strain orientation; and stretching at least part of the sheet part of the formed article having an as-moulded dimension so as to have a stretched dimension and such that strain orientation of at least part of the sheet part of the formed article occurs, and then relaxing the formed article so as to have a post-relaxation dimension which is between the as-moulded dimension and the stretched dimension, and wherein the elongate members that have the cross-sectional width and the cross-sectional depth of about 2.5 mm or less are stretched along their lengths and then relaxed as the article is stretched and relaxed. providing a polymeric resin comprising a thermoplastic polyester elastomer; heating the resin to form a molten resin at a temperature of at least about 240°C; injecting the molten resin into a mould (22, 23, 27) of a moulding apparatus to substantially fill the mould and form an article, wherein at least part of the article is a sheet part with a plurality of elongate members (2063a, 2063b) that are integrally formed into the sheet part, with apertures provided between at least some of the members (2063a, 2063b) of the sheet part to form a mesh, wherein the elongate members have a length, a cross-sectional width, and a cross-sectional depth, and wherein the cross-sectional width and the cross-sectional depth of at least some of the elongate members is about 2.5 mm or less; and removing the formed article from the mould (22, 23, 27), wherein at least the sheet part of the formed article is suitable for strain orientation; and stretching at least part of the sheet part of the formed article having an as-moulded dimension so as to have a stretched dimension and such that strain orientation of at least part of the sheet part of the formed article occurs, and then relaxing the formed article so as to have a post-relaxation dimension which is between the as-moulded dimension and the stretched dimension, and wherein the elongate members that have the cross-sectional width and the cross-sectional depth of about 2.5 mm or less are stretched along their lengths and then relaxed as the article is stretched and relaxed.
Housing for an industrial installation, in particular for filling and/or for handling food containers in a sterile or clean room atmosphere within the housing, with a supporting frame for establishing the shape stability of the housing, and at least one covering element arranged thereon, wherein the supporting frame is at least partially formed by supporting elements (6, 7), characterised in that the supporting elements (6, 7) form at least in sections a part of a gas line system for conveying gas from a central gas supply to at least one gas outlet, for which purpose at least one of the supporting elements (6, 7) can be connected to the central gas supply, and at least one of the supporting elements (6, 7) comprises a gas outlet, arranged on the outside of the housing and directed towards the outside, in order to improve the air quality in the immediate surroundings. a supporting frame for establishing the shape stability of the housing, and at least one covering element arranged thereon, wherein the supporting frame is at least partially formed by supporting elements (6, 7), characterised in that the supporting elements (6, 7) form at least in sections a part of a gas line system for conveying gas from a central gas supply to at least one gas outlet, for which purpose at least one of the supporting elements (6, 7) can be connected to the central gas supply, and at least one of the supporting elements (6, 7) comprises a gas outlet, arranged on the outside of the housing and directed towards the outside, in order to improve the air quality in the immediate surroundings.
An imaging system comprising: a plurality of detector heads (12, 14, 80, 100, 202); and a frame on which the plurality of detector heads are mounted, wherein the frame is configurable in (i) an operational configuration in which the detector heads are arranged to be manipulated by the frame to acquire imaging data, and (ii) a shipping configuration in which the detector heads remain mounted on the frame and the imaging system is reduced in size along at least one dimension compared with the operational configuration and characterised in that the frame (20, 22,24,204,206) has at least one mechanical degree of freedom (41, 42, 94, 105, 210, 220) that is used in switching between the operational configuration and the shipping configuration and that is locked into a fixed position when the frame is in the operational configuration. a plurality of detector heads (12, 14, 80, 100, 202); and a frame on which the plurality of detector heads are mounted, wherein the frame is configurable in (i) an operational configuration in which the detector heads are arranged to be manipulated by the frame to acquire imaging data, and (ii) a shipping configuration in which the detector heads remain mounted on the frame and the imaging system is reduced in size along at least one dimension compared with the operational configuration and characterised in that the frame (20, 22,24,204,206) has at least one mechanical degree of freedom (41, 42, 94, 105, 210, 220) that is used in switching between the operational configuration and the shipping configuration and that is locked into a fixed position when the frame is in the operational configuration.
A piston engine, comprising a plurality of cylinders, each cylinder being provided with an own cylinder head, the piston engine comprising, a fluid distribution element having at least two longitudinal parallel fluid channels (2a, 2b, 2c, 2d) adjacent to each other, wherein each of the fluid channels comprises - an inlet (3a, 3b, 3c, 3d), and - for at least one cylinder in an associated bank of the respective piston engine, an outlet (4a, 4a', 4b, 4c, 4d) for providing fluid communication between the fluid channel and a respective cylinder head, wherein the fluid channels are defined by separate longitudinal profile pieces (5a, 5b, 5c, 5d) arranged side-by-side, such that adjacent profile pieces are adjoined by welding, so as to form at least two closed cross-sectional profiles defining the at least two fluid channels, respectively, and wherein a fixture arrangement being provided for fixing the fluid distribution element to the respective piston engine wherein each cylinder head of the engine is in fluid communication with at least one fluid channel (2a, 2b, 2c, 2d) via a respective outlet (4a, 4a', 4b, 4c, 4d) corresponding with said cylinder head, characterized in that the fluid channels (2a, 2b, 2c, 2d) comprises a starting air channel and at least one fluid channel, which is one of the following: - a fuel return channel for liquid fuel; - a fuel leakage channel for liquid fuel; - a gas channel for gaseous fuel; - a lube channel for lubrication oil; - a control channel for control air; - a water channel for introducing water into combustion chambers; - a control oil channel. - an inlet (3a, 3b, 3c, 3d), and - for at least one cylinder in an associated bank of the respective piston engine, an outlet (4a, 4a', 4b, 4c, 4d) for providing fluid communication between the fluid channel and a respective cylinder head, wherein a fixture arrangement being provided for fixing the fluid distribution element to the respective piston engine wherein each cylinder head of the engine is in fluid communication with at least one fluid channel (2a, 2b, 2c, 2d) via a respective outlet (4a, 4a', 4b, 4c, 4d) corresponding with said cylinder head, characterized in that the fluid channels (2a, 2b, 2c, 2d) comprises a starting air channel and at least one fluid channel, which is one of the following: - a fuel return channel for liquid fuel; - a fuel leakage channel for liquid fuel; - a gas channel for gaseous fuel; - a lube channel for lubrication oil; - a control channel for control air; - a water channel for introducing water into combustion chambers; - a control oil channel. - a fuel return channel for liquid fuel; - a fuel leakage channel for liquid fuel; - a gas channel for gaseous fuel; - a lube channel for lubrication oil; - a control channel for control air; - a water channel for introducing water into combustion chambers; - a control oil channel.
An organopolysiloxane graft polymer comprising an organopolysiloxane segment as a main chain thereof and an unsaturated monomer-derived polymer segment as a side chain thereof, in which the unsaturated monomer-derived polymer segment contains a repeating unit derived from N,N-dimethyl acrylamide in an amount of not less than 50% by mass and not more than 100% by mass, and a content of the organopolysiloxane segment in the organopolysiloxane graft polymer is not less than 10% by mass and not more than 70% by mass.
An exhaust system for an outboard motor of a marine vessel, the outboard motor having a combustion engine and the exhaust system comprising: an exhaust system inlet configured to be coupled to an exhaust gas outlet of the combustion engine; one or more exhaust system outlets (32, 33); an exhaust gas flow path extending from the exhaust system inlet to the one or more exhaust system outlets (32, 33), the exhaust gas flow path having a forward flow direction from the exhaust system inlet to the one or more exhaust system outlets (32, 33), and a reverse flow direction extending from at least one of the one or more exhaust system outlets (32, 33) to the exhaust system inlet; an inlet conduit downstream of the exhaust system inlet along the forward flow direction of the exhaust gas flow path; and a flow redirection arrangement in the exhaust gas flow path for restricting a flow of liquid flowing in the reverse flow direction, the flow redirection arrangement comprising at least one conduit flow redirection feature in the inlet conduit, characterized in that the at least one conduit flow redirection feature is formed on an inner wall of the inlet conduit and includes an array of projections extending away from the inner wall of the inlet conduit in the forward flow direction, configured to redirect a first stream of the flow of liquid towards the forward flow direction to collide with a second stream of the flow of liquid. an exhaust system inlet configured to be coupled to an exhaust gas outlet of the combustion engine; one or more exhaust system outlets (32, 33); an exhaust gas flow path extending from the exhaust system inlet to the one or more exhaust system outlets (32, 33), the exhaust gas flow path having a forward flow direction from the exhaust system inlet to the one or more exhaust system outlets (32, 33), and a reverse flow direction extending from at least one of the one or more exhaust system outlets (32, 33) to the exhaust system inlet; an inlet conduit downstream of the exhaust system inlet along the forward flow direction of the exhaust gas flow path; and a flow redirection arrangement in the exhaust gas flow path for restricting a flow of liquid flowing in the reverse flow direction, the flow redirection arrangement comprising at least one conduit flow redirection feature in the inlet conduit, characterized in that the at least one conduit flow redirection feature is formed on an inner wall of the inlet conduit and includes an array of projections extending away from the inner wall of the inlet conduit in the forward flow direction, configured to redirect a first stream of the flow of liquid towards the forward flow direction to collide with a second stream of the flow of liquid.
A method for a satellite thermal management system, the method comprising: heating, in an evaporator (390; 490; 491), a liquid to convert the liquid to a vapor; passively circulating within tubing (360; 460; 461), from the evaporator, the vapor to a first radiator (310; 320; 410; 420-423) not illuminated by a sun and to a second radiator (310; 320; 410; 420-423) illuminated by the sun; converting the vapor to the liquid when the vapor is within the first radiator not illuminated by the sun; and passively circulating within the tubing, from the first radiator not illuminated by the sun, the liquid to the evaporator; wherein the liquid is circulated within the tubing, from the first radiator not illuminated by the sun, to the evaporator via a vapor blocking tee (340; 430; 431), wherein the vapour from the second radiator is not allowed to pass through the vapour blocking tee (340; 430; 431). heating, in an evaporator (390; 490; 491), a liquid to convert the liquid to a vapor; passively circulating within tubing (360; 460; 461), from the evaporator, the vapor to a first radiator (310; 320; 410; 420-423) not illuminated by a sun and to a second radiator (310; 320; 410; 420-423) illuminated by the sun; converting the vapor to the liquid when the vapor is within the first radiator not illuminated by the sun; and passively circulating within the tubing, from the first radiator not illuminated by the sun, the liquid to the evaporator; wherein the liquid is circulated within the tubing, from the first radiator not illuminated by the sun, to the evaporator via a vapor blocking tee (340; 430; 431), wherein the vapour from the second radiator is not allowed to pass through the vapour blocking tee (340; 430; 431).
A method for filling a hand held spray device comprising: providing a body with a reservoir having a total fill of materials; mixing a non-volatile silicone fluid, an antiperspirant active, at least one liquid activation enhancer and a first portion of an organoclay material to form a first composition, wherein the liquid activation enhancer has a Hansen Solubility Parameter for Hydrogen Bonding, δ h, between 2 and 6 and a light transmittance value greater than 90% according to the Light Transmittance Value Test Method; wherein the liquid activation enhancer has a concentration from 2% to 30% by weight of the antiperspirant composition and has the formula: R 1 -X-R 2 wherein R 1 contains from 8 to 20 carbon atoms, X is selected from the group consisting of an alcohol, ester, amide and aryl group, and R 2 is selected from the group consisting of null, H, 1 to 4 carbon atoms, and C 6 H 5; mixing a liquid fragrance material and a second portion of an organoclay material to form a second composition; filling the reservoir by either mixing the first composition and the second composition to form an antiperspirant composition or by filling the reservoir with the first composition and thereafter filling the reservoir with the second composition after the reservoir is filled with the first composition, to form an antiperspirant composition; providing a valve and attaching the valve to the body; and filling the reservoir with a propellant having a concentration of from 30% to 90% by weight of the total fill of materials. providing a body with a reservoir having a total fill of materials; mixing a non-volatile silicone fluid, an antiperspirant active, at least one liquid activation enhancer and a first portion of an organoclay material to form a first composition, wherein the liquid activation enhancer has a Hansen Solubility Parameter for Hydrogen Bonding, δ h, between 2 and 6 and a light transmittance value greater than 90% according to the Light Transmittance Value Test Method; wherein the liquid activation enhancer has a concentration from 2% to 30% by weight of the antiperspirant composition and has the formula: R 1 -X-R 2 wherein R 1 contains from 8 to 20 carbon atoms, X is selected from the group consisting of an alcohol, ester, amide and aryl group, and R 2 is selected from the group consisting of null, H, 1 to 4 carbon atoms, and C 6 H 5; mixing a liquid fragrance material and a second portion of an organoclay material to form a second composition; filling the reservoir by either mixing the first composition and the second composition to form an antiperspirant composition or by filling the reservoir with the first composition and thereafter filling the reservoir with the second composition after the reservoir is filled with the first composition, to form an antiperspirant composition; providing a valve and attaching the valve to the body; and filling the reservoir with a propellant having a concentration of from 30% to 90% by weight of the total fill of materials.