mhurhangee/ep-ind-claims huggingface dataset:
Blade for a wind turbine, the blade comprising at least one heating mat for generating heat mounted at an outer surface of the blade, at least one through-hole running from an inner space of the blade to the outer surface of the blade, and at least one conductive element, electrically coupled to the heating mat, wherein said conductive element is inserted in the through-hole for generating an electric connection between the inner space and the outer surface; said conductive element comprises a conductive bolt, said conductive bolt is fixed into the through-hole in such a way, that between a bolt head of the conductive bolt and the outer surface the heating mat is clamped for generating an electrically conductive clamping connection characterized in that the blade further comprises a conductive sheet; said conductive sheet is mounted to the outer surface by the conductive bolt; said conductive sheet is electrically coupled to the heating mat; and said conductive sheet increases the contact area and the clamping area between the bolt and the heating mat.
Greenhouse comprised of transparent walls and a structure comprising of one or more ridge beams (4,63) as part of a roof of the greenhouse, wherein the ridge beam (4,63) extends some distance above the roof defining two elongated side zones (6,7) present above the roof()5 and at either side of the ridge beam (4,63), wherein the ridge beam (4,63) is comprised of one or more elongated hollow spaces, wherein the ridge beam (4,63) is provided with one or more closable openings in both side zones (6,7) which openings fluidly connect the exterior of the greenhouse with the one or more elongated hollow spaces of the ridge beam (4,63), and wherein the ridge beam (4,63) is provided with one or more openings at its lower end fluidly connecting the interior of the greenhouse with the one or more elongated hollow spaces of the ridge beam (4,63), and wherein the ridge beam comprises an elongated valve (18, 30,70) and a fixed part which valve (18,30,70) has at least a first position relative to fixed part wherein the one or more openings in a first elongated side zone fluidly connect the exterior of the greenhouse with the one or more elongated hollow spaces of the ridge beam (4,63) and wherein the one or more openings in the opposite and second elongated side zone are closed and a second position relative to fixed part wherein the one or more openings in the second elongated side zone fluidly connect the exterior of the greenhouse with the one or more elongated hollow spaces of the ridge beam (4,63) and wherein the one or more openings in the first elongated side zone are closed. wherein the ridge beam (4,63) extends some distance above the roof defining two elongated side zones (6,7) present above the roof()5 and at either side of the ridge beam (4,63), wherein the ridge beam (4,63) is comprised of one or more elongated hollow spaces, wherein the ridge beam (4,63) is provided with one or more closable openings in both side zones (6,7) which openings fluidly connect the exterior of the greenhouse with the one or more elongated hollow spaces of the ridge beam (4,63), and wherein the ridge beam (4,63) is provided with one or more openings at its lower end fluidly connecting the interior of the greenhouse with the one or more elongated hollow spaces of the ridge beam (4,63), and wherein the ridge beam comprises an elongated valve (18, 30,70) and a fixed part which valve (18,30,70) has at least a first position relative to fixed part wherein the one or more openings in a first elongated side zone fluidly connect the exterior of the greenhouse with the one or more elongated hollow spaces of the ridge beam (4,63) and wherein the one or more openings in the opposite and second elongated side zone are closed and a second position relative to fixed part wherein the one or more openings in the second elongated side zone fluidly connect the exterior of the greenhouse with the one or more elongated hollow spaces of the ridge beam (4,63) and wherein the one or more openings in the first elongated side zone are closed.
A rotor assembly (60, 60', 60") for a gas turbine engine comprising: a rotor including a hub carrying one or more rotatable blades, the rotor mechanically attached to a shaft; and an annular seal (74, 74', 74") carried by the shaft, wherein the annular seal (74, 74', 74") comprises: a substrate; a first layer disposed on the substrate; and a second layer disposed on the first layer and arranged to establish a sealing relationship with the rotor, characterised by the second layer comprising a solid lubricant including molybdenum trioxide (MoO 3); and wherein the rotor is an integrally bladed rotor. a rotor including a hub carrying one or more rotatable blades, the rotor mechanically attached to a shaft; and an annular seal (74, 74', 74") carried by the shaft, wherein the annular seal (74, 74', 74") comprises: a substrate; a first layer disposed on the substrate; and a second layer disposed on the first layer and arranged to establish a sealing relationship with the rotor, characterised by the second layer comprising a solid lubricant including molybdenum trioxide (MoO 3); and a substrate; a first layer disposed on the substrate; and a second layer disposed on the first layer and arranged to establish a sealing relationship with the rotor, characterised by the second layer comprising a solid lubricant including molybdenum trioxide (MoO 3); and establish a sealing relationship with the rotor, characterised by the second layer comprising a solid lubricant including molybdenum trioxide (MoO 3); and wherein the rotor is an integrally bladed rotor.
Espalier fruit installation, in particular vine plant, for fruit plants arranged in rows, which can be fastened to a fastening wire (12.1), wherein the fastening wire (12.1) is tensioned between supporting posts, and wherein a heating device is provided, wherein the heating device comprises a heating cable which is fastened to the fastening wire (12.1) and is in heat-conducting connection therewith, characterized in that the heating cable is accommodated in a hollow profile, that the hollow profile consists of a heat-conducting material, and that the hollow profile is held in heat-conducting contact with the fastening wire (12.1) by means of a fastening element. wherein the heating device comprises a heating cable which is fastened to the fastening wire (12.1) and is in heat-conducting connection therewith, characterized in that the heating cable is accommodated in a hollow profile, that the hollow profile consists of a heat-conducting material, and that the hollow profile is held in heat-conducting contact with the fastening wire (12.1) by means of a fastening element.
A multiple substrate with a ceramic plate or ceramic layer and at least one metal layer fastened flat to at least one surface side of the ceramic layer, the multiple substrate forming at least two individual substrates which adjoin one another and are integrally connected to one another and which are delimited from one another by at least one intersection line running between the individual substrates, wherein the individual substrates each have at least one countersink (27, 28, 29, 30) at at least one edge region (23, 24, 25, 26), the individual substrates differ in the position of the countersink (27, 28, 29, 30) along the edge region (23, 24, 25, 26) in order to encode information by means of the at least one countersink (27, 28, 29, 30) in the edge region (23, 24, 25, 26); wherein the countersink (27, 28, 29, 30) completely penetrates the thickness of the metal layer.
A method of strengthening hair fibers comprising applying a hair composition comprising an amide and/or an alkyl ammonium carboxylate salt represented by the following formulas: wherein R 1 -R 4 are independently hydrogen, a hydrocarbon radical having 1 to 10 carbon atoms, a hydroxyl group, an amino group, a sulfhydryl group, an aryl group, or a halogen, and R 5 and R 6 are independently hydrogen, an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, an aryl group, an alkylaryl group or a heterocyclic group; and wherein R 1 ′ − R 4 ′ are independently hydrogen, a hydrocarbon radical having 1 to 10 carbon atoms, a hydroxyl group, an amino group, a sulfhydryl group, an aryl group, or a halogen; and R 5 ′ and R 6 ′ are independently hydrogen, an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, an aryl group, or a heterocyclic group, excluding R 5 ′ and R 6 ′ being simultaneous hydrogens, wherein the aliphatic hydrocarbon group, the alicyclic hydrocarbon group, the aryl group, the alkylaryl group or the heterocyclic group is substituted with at least one hydroxyl group. wherein R 1 -R 4 are independently hydrogen, a hydrocarbon radical having 1 to 10 carbon atoms, a hydroxyl group, an amino group, a sulfhydryl group, an aryl group, or a halogen, and R 5 and R 6 are independently hydrogen, an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, an aryl group, an alkylaryl group or a heterocyclic group; and wherein R 1 ′ − R 4 ′ are independently hydrogen, a hydrocarbon radical having 1 to 10 carbon atoms, a hydroxyl group, an amino group, a sulfhydryl group, an aryl group, or a halogen; and R 5 ′ and R 6 ′ are independently hydrogen, an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, an aryl group, or a heterocyclic group, excluding R 5 ′ and R 6 ′ being simultaneous hydrogens, wherein the aliphatic hydrocarbon group, the alicyclic hydrocarbon group, the aryl group, the alkylaryl group or the heterocyclic group is substituted with at least one hydroxyl group.
A refrigeration cycle apparatus comprising: a compressor; a first heat exchanger; a first expansion valve; a refrigerant container; a second expansion valve; a second heat exchanger connected in series, a high-pressure side pressure detector configured to detect a pressure of refrigerant between a discharge side of the compressor and the first expansion valve; a middle-pressure side pressure detector configured to detect a pressure of refrigerant between the first expansion valve and the second expansion valve; and a controller configured to control an opening degree of the first expansion valve and an opening degree of the second expansion valve, the controller being configured to compute a degree of subcooling of outlet refrigerant of the first heat exchanger, based on a high-pressure side pressure value detected by the high-pressure side pressure detector and a middle-pressure side pressure value detected by the middle-pressure side pressure detector, and control the opening degree of the first expansion valve such that the degree of subcooling takes a target value, and control the opening degree of the second expansion valve based on a pressure difference of the refrigerant passing through the first expansion valve. a compressor; a first heat exchanger; a first expansion valve; a refrigerant container; a second expansion valve; a second heat exchanger connected in series, a high-pressure side pressure detector configured to detect a pressure of refrigerant between a discharge side of the compressor and the first expansion valve; a middle-pressure side pressure detector configured to detect a pressure of refrigerant between the first expansion valve and the second expansion valve; and a controller configured to control an opening degree of the first expansion valve and an opening degree of the second expansion valve,
A device for phase stepping in phase contrast image acquisition, the device comprising: a mobile grating; a guiding element; a restoring element; and a locking element; wherein the guiding element is configured to guide the mobile grating between a first position and a second position; wherein the restoring element is configured to apply a force to the mobile grating; wherein the force is directed from the first position to the second position; and wherein the locking element is configured to releasably lock the mobile grating in the first position. a mobile grating; a guiding element; a restoring element; and a locking element; wherein the guiding element is configured to guide the mobile grating between a first position and a second position; wherein the restoring element is configured to apply a force to the mobile grating; wherein the force is directed from the first position to the second position; and wherein the locking element is configured to releasably lock the mobile grating in the first position.
A spout for a lid, where the lid is constructed and arranged to fit over and close an open top of a container, the spout comprising: an elongated fluid conduit having two ends (24, 25) and lying along a conduit longitudinal axis, the conduit having a pair of opposed convex curved sidewalls (61, 63) that meet at two opposed locations (64, 65) at an angle of less than180 degrees to define a generally elliptical cross-sectional shape that has a major axis that passes through the sidewall meeting locations (64, 65); and a bite valve comprising a membrane located within the conduit and spaced from the ends (24, 25) of the conduit, the membrane coupled to both sidewalls (61, 63) so as to fully block the conduit, and a slit through the membrane, where the slit lies along a slit axis that is transverse to the major axis of the conduit; characterized in that the spout further comprises two wall-strengthening ribs (30a, 30b), one projecting inwardly from each of the sidewalls (61, 63) and coupled to the top of the membrane; wherein the ribs (30a, 30b) are centered on the slit,wherein each rib (30a, 30b) defines an indentation (34, 34a) at the slit location, wherein each indentation (34, 34a) extends along at least most of the rib (30a, 30b) in the direction of the conduit longitudinal axis. an elongated fluid conduit having two ends (24, 25) and lying along a conduit longitudinal axis, the conduit having a pair of opposed convex curved sidewalls (61, 63) that meet at two opposed locations (64, 65) at an angle of less than180 degrees to define a generally elliptical cross-sectional shape that has a major axis that passes through the sidewall meeting locations (64, 65); and a bite valve comprising a membrane located within the conduit and spaced from the ends (24, 25) of the conduit, the membrane coupled to both sidewalls (61, 63) so as to fully block the conduit, and a slit through the membrane, where the slit lies along a slit axis that is transverse to the major axis of the conduit; characterized in that the spout further comprises two wall-strengthening ribs (30a, 30b), one projecting inwardly from each of the sidewalls (61, 63) and coupled to the top of the membrane; wherein the ribs (30a, 30b) are centered on the slit,wherein each rib (30a, 30b) defines an indentation (34, 34a) at the slit location, wherein each indentation (34, 34a) extends along at least most of the rib (30a, 30b) in the direction of the conduit longitudinal axis.
Headphones (200; 300) with acoustic enhancement, the headphones having a corresponding frequency response, comprising: a driver unit with a housing having an interior side for integrating together a magnet, a diaphragm, and a primary bass port, the primary bass port being substantially surrounded by the magnet and having a primary bass port chamber with a first end opening facing towards the diaphragm and a second end opening facing opposite of the first end opening, the diaphragm being located on the interior side of the driver unit and configured for analog audio reproduction; and a secondary bass port (240;340) having a secondary bass port chamber (242;342) with a third end opening and a fourth end opening, the secondary bass port being coupled at the third end opening to the primary bass port at the second end opening, and the fourth end opening having substantially unimpeded air flow, further comprising: an acoustic chamber configured to prevent ambient noise from substantially mixing with the analog audio reproduction, the acoustic chamber substantially encircling and covering a backside of the driver unit except for where the secondary bass port couples to the primary bass port of the driver, wherein the acoustic chamber and the secondary bass port are configured for collectively tuning the sound pressure levels in the frequency response and the backside of the driver unit corresponds to an exterior side of the housing, the exterior side of the housing being opposite of the interior side of the housing, wherein the second end opening of the primary bass port does not open to the acoustic chamber. a driver unit with a housing having an interior side for integrating together a magnet, a diaphragm, and a primary bass port, the primary bass port being substantially surrounded by the magnet and having a primary bass port chamber with a first end opening facing towards the diaphragm and a second end opening facing opposite of the first end opening, the diaphragm being located on the interior side of the driver unit and configured for analog audio reproduction; and a secondary bass port (240;340) having a secondary bass port chamber (242;342) with a third end opening and a fourth end opening, the secondary bass port being coupled at the third end opening to the primary bass port at the second end opening, and the fourth end opening having substantially unimpeded air flow, further comprising: an acoustic chamber configured to prevent ambient noise from substantially mixing with the analog audio reproduction, the acoustic chamber substantially encircling and covering a backside of the driver unit except for where the secondary bass port couples to the primary bass port of the driver, wherein the acoustic chamber and the secondary bass port are configured for collectively tuning the sound pressure levels in the frequency response and the backside of the driver unit corresponds to an exterior side of the housing, the exterior side of the housing being opposite of the interior side of the housing, wherein the second end opening of the primary bass port does not open to the acoustic chamber.
A device assembly comprising: a heat-generating electronic component in thermal communication with a metallic heat sink via a metallic thermal interface layer, the metallic thermal interface layer being disposed between the heat-generating electronic component and the metallic heat sink and the metallic thermal interface layer being formed from a composition comprising a plurality of metal nanoparticles that are at least partially fused together with one another, characterized in that the metallic heat sink comprises a passivating metal oxide surface layer and the composition further comprises an etchant capable of etching a metal oxide.
A method for lane keeping assistance for a vehicle (1, 1a) comprising the steps of: detecting the lane; and controlling the torque for steering said vehicle during driving of said vehicle so as to follow said lane in a desired way, characterized by the step of: providing a torque profile comprising three laterally separated torque profile portions for said control based upon vehicle characteristics of said vehicle and lane characteristics, said torque profile specifying different vehicle lateral positions (P1, P2, P3) on said lane.
A panel lamp comprising: a fixing plate, configured to be connected to a ceiling, the fixing plate being provided with a plurality of fixing grooves, a lamp body; and at least two spring assemblies, each spring assembly being corresponding to a fixing groove of the plurality of fixing grooves, each spring assembly comprising: a torsion spring, rotatably connected to the lamp body; and a clamping rod structure, having elasticity, a first end of the clamping rod structure being connected to the torsion spring, and a second end of the clamping rod structure having an extension segment; wherein the clamping rod structure passes through the fixing groove and contacts with a sidewall of the fixing groove at a contact point to form a lever structure, wherein a fulcrum of the lever structure is the contact point, a first end of the lever structure is the extension segment being in pressing contact with the ceiling and receiving a first force away from the ceiling, and a second end of the lever structure is the torsion spring having a second force towards the ceiling, the second force is transformed from the first force through the lever structure and makes the torsion spring drive the lamp body attach to the ceiling. a fixing plate, configured to be connected to a ceiling, the fixing plate being provided with a plurality of fixing grooves, a lamp body; and at least two spring assemblies, each spring assembly being corresponding to a fixing groove of the plurality of fixing grooves, each spring assembly comprising: a torsion spring, rotatably connected to the lamp body; and a clamping rod structure, having elasticity, a first end of the clamping rod structure being connected to the torsion spring, and a second end of the clamping rod structure having an extension segment; wherein a torsion spring, rotatably connected to the lamp body; and a clamping rod structure, having elasticity, a first end of the clamping rod structure being connected to the torsion spring, and a second end of the clamping rod structure having an extension segment; wherein the clamping rod structure passes through the fixing groove and contacts with a sidewall of the fixing groove at a contact point to form a lever structure, wherein a fulcrum of the lever structure is the contact point, a first end of the lever structure is the extension segment being in pressing contact with the ceiling and receiving a first force away from the ceiling, and a second end of the lever structure is the torsion spring having a second force towards the ceiling, the second force is transformed from the first force through the lever structure and makes the torsion spring drive the lamp body attach to the ceiling.
A system for measuring the quality of steam flowing through a conduit including a steam dryness meter having a throttling calorimeter, at least one sensor for sensing a thermodynamic condition of the steam upstream of the calorimeter, at least one other sensor for sensing the condition of the steam sample in the calorimeter, and a controllable heat input for applying heat to the steam sample; characterized in that the system has a non-condensable gases meter including a cooler for condensing a superheated steam sample and a reservoir including an inverted bucket where the condensate and non-condensable gases separate and are entrapped, at least one sensor operably connected to the inverted bucket, at least one other sensor operably connected to the reservoir; and a computer operably connected to the sensors in the steam dryness meter and the non-condensable gases meter for periodically receiving the data signals corresponding to the sensed steam sample conditions in each of the steam dryness meter and the non-condensable gases meter, the computer including first logic for determining the dryness of the steam sample based upon the sensed steam sample conditions and second logic for determining the ratio of water to non-condensable gases in the condensed steam sample based on the sensed steam sample conditions in the inverted bucket and the reservoir.
A method of producing a carboxylate ligand modified ferric iron hydroxide formulation, the method comprising mixing a colloidal suspension of the carboxylate ligand modified ferric iron hydroxide in a water miscible non-aqueous solvent to cause the carboxylate ligand modified ferric iron hydroxide to agglomerate; recovering the agglomerated carboxylate ligand modified ferric iron hydroxide; and drying the carboxylate ligand modified ferric iron hydroxide to produce the carboxylate ligand modified ferric iron hydroxide formulation, wherein the carboxylate ligand comprises one or more dicarboxylate ligands; wherein the carboxylate ligand modified ferric iron hydroxide has a three dimensional polymeric structure in which the carboxylate ligands are non-stoichiometrically substituted for the oxo or hydroxy groups of the ferric iron hydroxide so that some of the ligand integrates into the solid phase by formal metal-ligand bonding.