mhurhangee/patent-ind-claim-en huggingface dataset:
A method of deploying a heat exchanger pipe , the method comprising: drilling a bore hole from an access ditch location to a terminal ditch location using a piloted drill head powered via an umbilical attached to the piloted drill head; attaching a casing to the piloted drill head about the umbilical and deploying the casing into the bore hole from the access ditch location to the terminal ditch location ; at the terminal ditch location , removing the piloted drill head from the casing and the umbilical ; at the terminal ditch location , attaching a heat exchanger pipe to the umbilical ; withdrawing the umbilical from within the casing deployed in the bore hole and pulling the heat exchanger pipe into the casing ; and withdrawing the casing from the bore hole leaving the heat exchanger pipe in the bore hole. drilling a bore hole from an access ditch location to a terminal ditch location using a piloted drill head powered via an umbilical attached to the piloted drill head; attaching a casing to the piloted drill head about the umbilical and deploying the casing into the bore hole from the access ditch location to the terminal ditch location ; at the terminal ditch location , removing the piloted drill head from the casing and the umbilical ; at the terminal ditch location , attaching a heat exchanger pipe to the umbilical ; withdrawing the umbilical from within the casing deployed in the bore hole and pulling the heat exchanger pipe into the casing ; and withdrawing the casing from the bore hole leaving the heat exchanger pipe in the bore hole.
A drug delivery device comprising a delivery unit including an internal reservoir , a subcutaneous delivery mechanism , a pump for pumping liquid from the internal reservoir to the subcutaneous delivery system, and a liquid filling mechanism configured for injecting liquid from an external reservoir or vial into the internal reservoir, the liquid filling mechanism comprising a filling port and a valve mechanism selectively operable to: - open a first fluid path extending from the filling port to the internal fluid reservoir and close a second fluid path extending from the internal reservoir to the subcutaneous delivery member, or - close the first fluid path and open the second fluid path, wherein the valve mechanism comprises a valve housing fixedly mounted in relation to a housing of the drug delivery device and a valve stem received within the valve housing and arranged to rotate about an axial direction of the filling port, whereby the first fluid path and the second fluid path are selectively operated by the rotational position of the valve stem in relation to the valve housing, such that when the valve stem is in a first position, the first fluid path is open while the second fluid path is closed, and when the valve stem is in a second position, the second fluid path is open while the first fluid path is closed. - open a first fluid path extending from the filling port to the internal fluid reservoir and close a second fluid path extending from the internal reservoir to the subcutaneous delivery member, or - close the first fluid path and open the second fluid path,
Device for controlling and/or regulating speeds of an electric vehicle, in particular an electric vehicle, comprising a means of influencing a unit of speed for an electric motor of an electric vehicle, for controlling and/or regulating the unit of speed, a calculating unit of speed, a means of receiving for: the motion signals of the motion of the wheel, the first signal transmitter being positioned on a spokes of the wheel of the electric vehicle, the first signal transmitter comprising a magnetic medium and transmitting motion signals with magnetic fields, and the first signal transmitter being provided substantially outside the field range of the receiving medium and comprising a permanent magnet, a second signaling device for time-dependent signals, appropriately constructed with movements of the first signaling device, and a amplification device , which provides amplification signals to amplify the signals of the second signaling device, so that the resulting switching pattern of the receiving device affects the unit of calculation so that a given limit speed in the sense of the unit of calculation cannot be exceeded during given periods, whereby the agent may exceed the limit speed by means of a real speed of the unit of speed for an electric motor of the electric vehicle, the first signalling device being along the radius is to be positioned substantially outside the field range of the receiving medium , characterised by the fact that the reinforcement medium comprises a magnetic medium with the signals of the second signaling medium parallel, equally oriented magnetic field lines .
An insert material for blocking flow of solder material into a void of a component during soldering operation, comprising: micro-sized metal oxide particles; nano-sized metal oxide particles; and a binder; characterized in that the insert material is in the form of a slurry comprising water; the micro-sized metal oxide particles are micro-sized aluminum oxide particles and the nano-sized metal oxide particles are nano-sized aluminum oxide particles; and the ratio of the nano-sized aluminum oxide particles and the micro-sized aluminum oxide particles is less than one third and is more than zero by weight. micro-sized metal oxide particles; nano-sized metal oxide particles; and a binder; characterized in that the insert material is in the form of a slurry comprising water; the micro-sized metal oxide particles are micro-sized aluminum oxide particles and the nano-sized metal oxide particles are nano-sized aluminum oxide particles; and the ratio of the nano-sized aluminum oxide particles and the micro-sized aluminum oxide particles is less than one third and is more than zero by weight.
A method for the ex vivo production of a population of highly functional NK cells from CD34-positive cells, wherein a population of highly functional NK cells is defined as a population wherein at least 10% of the CD56-positive cells are capable of secreting IFN-gamma upon stimulation with K562 target cells and wherein the amount of CD3-positive cells is at most about 0.1%, comprising: - culturing CD34-positive cells from a single donor in an expansion medium comprising IL-7, SCF, TPO, Flt3L and an aryl hydrocarbon receptor antagonist, - further culturing the expanded CD34-positive cells in a first differentiation medium Il-7, SCF, Flt3L, IL-15 and an aryl hydrocarbon receptor antagonist, - culturing in a second differentiation medium comprising IL-7, SCF and IL-15, wherein at least about 1E+9 highly functional NK cells are produced from a single donor, with the proviso that the expansion medium and the differentiation media do not comprise a glycosaminoglycan and do not comprise G-CSF, GM-CSF or IL-6. - culturing CD34-positive cells from a single donor in an expansion medium comprising IL-7, SCF, TPO, Flt3L and an aryl hydrocarbon receptor antagonist, - further culturing the expanded CD34-positive cells in a first differentiation medium Il-7, SCF, Flt3L, IL-15 and an aryl hydrocarbon receptor antagonist, - culturing in a second differentiation medium comprising IL-7, SCF and IL-15,
Wiper device , in particular windscreen-wiper device , having a wiper shaft which is rotatably received in a bearing bush , and having a positioning element which is provided to secure the position of the wiper shaft in the bearing bush , wherein the positioning element is crimped to the wiper shaft , characterized in that a sealing element which in particular encircles the wiper shaft is disposed between the wiper shaft and the positioning element .
A method of performing a lateral flow immunoassay using one or more lateral flow test strips, the method comprising: preheating the or each test strip; mixing an analyte with a buffer liquid; causing the mixed liquid to flow into an incubation chamber containing or receiving a reagent; and causing at least a part of the or each test strip to come into contact with the fluid in the chamber, resulting in the lateral flow immunoassay being initiated. preheating the or each test strip; mixing an analyte with a buffer liquid; causing the mixed liquid to flow into an incubation chamber containing or receiving a reagent; and causing at least a part of the or each test strip to come into contact with the fluid in the chamber, resulting in the lateral flow immunoassay being initiated.
A photomask comprising: a substrate; a shielding mask pattern provided on the substrate; and a transparent planarization layer located on a surface of the substrate provided with the shielding mask pattern, wherein the shielding mask pattern is a metal pattern, wherein the metal pattern is formed with at least one of copper, chromium, aluminum, molybdenum, nickel, gold and silver, wherein the shielding mask pattern has a thickness of greater than or equal to 20 nm and less than or equal to 500 nm, wherein the transparent planarization layer has a thickness of greater than or equal to 30 μm and less than or equal to 500 μm, the thickness of the transparent planarization layer is larger than a thickness of the shielding mask pattern, and the transparent planarization layer has surface roughness (Ra) of 0.1 nm to 20 nm. a substrate; a shielding mask pattern provided on the substrate; and a transparent planarization layer located on a surface of the substrate provided with the shielding mask pattern, wherein the shielding mask pattern is a metal pattern, wherein the metal pattern is formed with at least one of copper, chromium, aluminum, molybdenum, nickel, gold and silver, wherein the shielding mask pattern has a thickness of greater than or equal to 20 nm and less than or equal to 500 nm, wherein the transparent planarization layer has a thickness of greater than or equal to 30 μm and less than or equal to 500 μm, the thickness of the transparent planarization layer is larger than a thickness of the shielding mask pattern, and the transparent planarization layer has surface roughness (Ra) of 0.1 nm to 20 nm.
Use of a surface treatment agent in post-treatment of chemical conversion treatment of a metal material, wherein the surface treatment agent has a pH in a range of 3 to 5 and comprises a water-soluble ethylene glycol monoalkyl ether and a metal compound that is at least one metal compound selected from a water-soluble vanadium compound, a water-soluble titanium compound, a water-soluble zirconium compound, and a water-soluble hafnium compound.
An adhesive wafer for an ostomy device, the wafer comprising a proximal adhesive layer , a backing layer on the distal side of the adhesive layer , and a hole for accommodating a stoma, a connection zone , for attaching a collecting bag , circumferending the hole in a radial distance and a release layer configured to release a neutralizer on the distal side of the backing layer , characterized in that the backing layer is gas and water impermeable and in that at least a part of the distal surface of the central portion is provided with said release layer , the central portion being defined as the area extending radially from the edge of the hole to the connection zone . layer , a backing layer on the distal side of the adhesive layer , and a hole for accommodating a stoma, a connection zone , for attaching a collecting bag , circumferending the hole in a radial distance and a release layer configured to release a neutralizer on the distal side of the backing layer , characterized in that the backing layer is gas and water impermeable and in that at least a part of the distal surface of the central portion is provided with said release layer , the central portion being defined as the area extending radially from the edge of the hole to the connection zone .
A device for preparing a liner to be installed in a pipe, the device comprising a frame , which is rotationally symmetrical in relation to its rotational axis, the frame having two ends , in the middle of both of which ends is arranged an opening , and the device further comprising two rings in connection with the frame , which are equally large in their outer diameter and said outer diameter is larger than the outer diameter of the frame in the section between the rings , wherein each ring of said two rings is fastened to a corresponding end of the frame, the rings being in their outer diameter 5-30 mm larger the outer diameter of the frame in the section between the rings , and the device further comprising a handle for using the device with one hand, wherein said handle comprises two axis parts parallel to the rotational axis of the frame , which are adapted to be inserted into the openings in the ends of the frame ; a frame part linking the axis parts ; a support part connected to the frame part , which is transverse in relation to the rotational axis of the frame ; and an elbow support in connection with the support part , wherein said elbow support of the handle is in its shape a ring or pipe, having an outer diameter and an inner diameter, wherein the inner diameter of the elbow support is, at its narrowest point, at least 50 mm. wherein said handle comprises two axis parts parallel to the rotational axis of the frame , which are adapted to be inserted into the openings in the ends of the frame ; a frame part linking the axis parts ; a support part connected to the frame part , which is transverse in relation to the rotational axis of the frame ; and an elbow support in connection with the support part , wherein said elbow support of the handle is in its shape a ring or pipe, having an outer diameter and an inner diameter, wherein the inner diameter of the elbow support is, at its narrowest point, at least 50 mm.
A method , performed by a User Equipment, UE, the method comprising: obtaining a Channel Hardening, CH, parameter; changing a measurement parameter based on the obtained CH parameter; and adapting a measurement procedure in accordance with the changed parameter; signaling the CH parameter to a network node ; receiving from the network node an indication that the UE is allowed to perform optimizations of measurements based on the CH parameter; the method being characterized in that the indication indicates a granularity at which the UE is allowed to perform optimizations of measurements based on the CH parameter obtaining a Channel Hardening, CH, parameter; changing a measurement parameter based on the obtained CH parameter; and adapting a measurement procedure in accordance with the changed parameter; signaling the CH parameter to a network node ; receiving from the network node an indication that the UE is allowed to perform optimizations of measurements based on the CH parameter; the method being characterized in that the indication indicates a granularity at which the UE is allowed to perform optimizations of measurements based on the CH parameter
A fuel pumping unit for an aero-engine, the unit having a low pressure pump and a high pressure pump, the low pressure pump supplying fuel at a raised pressure to the high pressure pump for onward supply to a fuel metering unit of the engine, the high pressure pump having: first and second meshing gears for pumping a fuel; a first electrical motor having a first rotor , a first stator and first coil windings ; and a second electrical motor having a second rotor , a second stator and second coil windings ; wherein the first rotor is operatively connected to the first gear and the second rotor is operatively connected to the second gear such that each gear is rotated by its respective rotor; wherein the first and second coil windings are energised by respective and separate first and second electrical power circuits such that the first and second meshing gears can be driven independently of each other; wherein the first rotor and the first gear are mounted, axially spaced from each other, on a first gear shaft , and the second rotor and the second gear are mounted, axially spaced from each other, on a second gear shaft ; and wherein the pump is configured such that the electrical motors are cooled by a cooling flow formed from a flow of the pumped fuel and the electrical motors are fully immersed in the fuel. first and second meshing gears for pumping a fuel; a first electrical motor having a first rotor , a first stator and first coil windings ; and a second electrical motor having a second rotor , a second stator and second coil windings ; wherein the first rotor is operatively connected to the first gear and the second rotor is operatively connected to the second gear such that each gear is rotated by its respective rotor; wherein the first and second coil windings are energised by respective and separate first and second electrical power circuits such that the first and second meshing gears can be driven independently of each other; wherein the first rotor and the first gear are mounted, axially spaced from each other, on a first gear shaft , and the second rotor and the second gear are mounted, axially spaced from each other, on a second gear shaft ; and wherein the pump is configured such that the electrical motors are cooled by a cooling flow formed from a flow of the pumped fuel and the electrical motors are fully immersed in the fuel.
A pipe assembly comprising: a first wall having an inner surface defining a fuel flowpath ; a second wall spaced radially outward of the first wall; a gap formed between the first wall and the second wall defining a flow passage , wherein the flow passage provides a heating flowpath; and a screen positioned within the fuel flowpath, characterized by the screen including: a downstream end connected to the first wall; an upstream end extending upstream of the downstream end; and holes extending from an upstream side of the screen to a downstream side of the screen; wherein the screen is configured to direct ice in the fuel flowpath toward the inner surface of the first wall such that heat from the first wall melts the ice. a first wall having an inner surface defining a fuel flowpath ; a second wall spaced radially outward of the first wall; a gap formed between the first wall and the second wall defining a flow passage , wherein the flow passage provides a heating flowpath; and a screen positioned within the fuel flowpath, characterized by the screen including: a downstream end connected to the first wall; an upstream end extending upstream of the downstream end; and holes extending from an upstream side of the screen to a downstream side of the screen; wherein the screen is configured to direct ice in the fuel flowpath toward the inner surface of the first wall such that heat from the first wall melts the ice. a downstream end connected to the first wall; an upstream end extending upstream of the downstream end; and holes extending from an upstream side of the screen to a downstream side of the screen; wherein the screen is configured to direct ice in the fuel flowpath toward the inner surface of the first wall such that heat from the first wall melts the ice.
An elevator position reference system , comprising: a hoistway extending in a vertical direction; a first position measurement tape arranged in the hoistway to extend in the vertical direction; a first lower tensioning device , connected to a lower end of the first position measurement tape so as to apply a tensioning force to the first position measurement tape in the downwards vertical direction; characterized by further comprising a first upper tensioning device , connected to an upper end of the first position measurement tape (8, 8a, 8b") so as to apply a tensioning force to the first position measurement tape in the upwards vertical direction; and an intermediate fixing device secured at a fixing position in the hoistway and fixed to an intermediate portion of the first position measurement tape , between the upper end and the lower end of the first position measurement tape , so as to prevent vertical movement of the intermediate portion . a hoistway extending in a vertical direction; a first position measurement tape arranged in the hoistway to extend in the vertical direction; a first lower tensioning device , connected to a lower end of the first position measurement tape so as to apply a tensioning force to the first position measurement tape in the downwards vertical direction; characterized by further comprising a first upper tensioning device , connected to an upper end of the first position measurement tape (8, 8a, 8b") so as to apply a tensioning force to the first position measurement tape in the upwards vertical direction; and an intermediate fixing device secured at a fixing position in the hoistway and fixed to an intermediate portion of the first position measurement tape , between the upper end and the lower end of the first position measurement tape , so as to prevent vertical movement of the intermediate portion .
A clothes treating apparatus, comprising: a clothes accommodation unit ; an air duct connected to the clothes accommodation unit , and forming a flow path for air circulation; a blower configured to blow air discharged from the clothes accommodation unit , to the clothes accommodation unit ; an evaporator and a condenser spaced from each other in the air duct in an air flow direction; and a condensate water separating unit disposed between the evaporator and the condenser , and configured to separate condensate water, by gravity, from a mixed fluid including the air flowing from the evaporator to the condenser and the condensate water, characterized in that the condensate water separating unit comprises: a separation body protruding upward between a first mounting unit and a second mounting unit , wherein the first mounting unit is configured to mount the evaporator thereon; and the second mounting unit is configured to mount the condenser thereon. a clothes accommodation unit ; an air duct connected to the clothes accommodation unit , and forming a flow path for air circulation; a blower configured to blow air discharged from the clothes accommodation unit , to the clothes accommodation unit ; an evaporator and a condenser spaced from each other in the air duct in an air flow direction; and a condensate water separating unit disposed between the evaporator and the condenser , and configured to separate condensate water, by gravity, from a mixed fluid including the air flowing from the evaporator to the condenser and the condensate water, characterized in that the condensate water separating unit comprises: a separation body protruding upward between a first mounting unit and a second mounting unit , wherein the first mounting unit is configured to mount the evaporator thereon; and the second mounting unit is configured to mount the condenser thereon. a separation body protruding upward between a first mounting unit and a second mounting unit , wherein the first mounting unit is configured to mount the evaporator thereon; and the second mounting unit is configured to mount the condenser thereon.