mhurhangee/ep-ind-claims huggingface dataset:
A rainwater harvesting system comprising a tank designed to allow for the addition of tanks of a linear design and a means of connection, the tanks being positionable in an area of a building known as the projection wherein water from the roof enters a channel called a gutter to be carried to dispersing points away from the building by means of a pipe which runs vertical to the gutter, known as a downpipe wherein rainwater before reaching said downpipe is diverted to the tanks by feeders positioned on an internal upright feature of the gutter which internal upright feature is vertical and parallel to the wall of the building,which feeders give watertight bridges to the tanks said feeders being of circular or of any other desired design and starting at a level that reduces the risk of debris from entering the tanks with a silt chamber created at specified points, wherein the tanks are of a design that allows for self-cleaning of the system, the means of connection being a circular pipe, wherein tanks are placed at the same level of elevation and are connected by the circular pipe, which is received by a connection point at the base of the tanks wherein the circular pipe is designed so that the bottom of the circular pipe is in level with the base of the tanks thus allowing for no sediment traps to occur when two another tank or a number of consecutive tanks are connected at the same level wherein the base of the tanks has no ribbing or raised areas so that this process can be continuous throughout the system, characterised in that said tanks are designed on a tapered format to allow for easy stack ability for storage and transport but additionally encompasses features that allow for insulation to a desired level to be obtained and the fitting of a water collection device, and in that water is then being fed to a further tank or tanks positioned at a lower level of elevation than said connected tanks and in that at each level of tanks there is a ball valve or a restriction mechanism that will stop the liquid from overflowing when the tank or tanks at that level has or have reached capacity from accepting more water which allows the system to fill in a stacking manner achieving movement by usage as the water flows from one level to another thus obtaining oxygenation which allows for the water to be stored in large volumes at any location within a building that will facilitate this method and obtain the desired quantity.
Shaft for use in drive and transport devices having two end parts (2,3) and at least one central part mounted between the two end parts (2,3), which central part is lockable to and unlockable from the two end parts (2,3) by means of a respective locking device, characterised in that the locking device has a displaceable piston, which is lockable at least indirectly relative to the respective end part (2,3) by means of a respective securing element in the locked condition of the central part.
A composition for producing a crosslinked product, the composition comprising (a) an alkenyl silicone, (b) a hydrogen siloxane, (c) a cure inhibitor and (d) a hydrosilylation catalyst, optionally in the presence of a solvent, and (e) a sulfur compound in order to produce the crosslinked product, the sulfur compound (e) being a compound of the formula: R 1 -S-R 2 where (i) R 1 and R 2 are independently chosen from a C1-C20 alkyl, a C1-C20 hydroxyalkyl, a C1-C20 carboxylic acid, or a combination of two or more thereof; (ii) R 1 and R 2 are each chosen from a C1-C20 alkyl; or (iii) R 1 is chosen from a C1-C20 alkyl, and R 2 is chosen from a C1-C20 hydroxyalkyl.
A resource transmission method, comprising: in a case of a plurality of Configured Grant, CGs, overlapping, indicating, by a Medium Access Control, MAC, entity of a terminal device, multiple transmissions of an uplink resource to a Hybrid Automatic Repeat reQuest, HARQ, process at the terminal device when the terminal device does not configure a MAC priority processing mode.
A system for mode shape identification, comprising: a rotating element; a plurality of trigger patterns (100, 101, 102) disposed at a distal end of the rotating element; and at least one sensor disposed adjacent to the distal end of the rotating element for detecting the plurality of trigger patterns (100, 101, 102); wherein the rotating element is a turbine bucket and the distal end of the turbine bucket includes a tip shroud; wherein the trigger patterns (100, 101, 102) are disposed at various trigger angles on an outer surface of the tip shroud; and wherein a first of the plurality of trigger patterns and its corresponding trigger angle provide a great probe sensitivity to a first turbine bucket mode shape and a poor probe sensitivity to a second turbine bucket mode shape and a second of the plurality of trigger patterns and its corresponding trigger angle provide a great probe sensitivity to the second turbine bucket mode shape and a poor probe sensitivity to the first turbine bucket mode shape. a rotating element; a plurality of trigger patterns (100, 101, 102) disposed at a distal end of the rotating element; and at least one sensor disposed adjacent to the distal end of the rotating element for detecting the plurality of trigger patterns (100, 101, 102); wherein the rotating element is a turbine bucket and the distal end of the turbine bucket includes a tip shroud; wherein the trigger patterns (100, 101, 102) are disposed at various trigger angles on an outer surface of the tip shroud; and wherein a first of the plurality of trigger patterns and its corresponding trigger angle provide a great probe sensitivity to a first turbine bucket mode shape and a poor probe sensitivity to a second turbine bucket mode shape and a second of the plurality of trigger patterns and its corresponding trigger angle provide a great probe sensitivity to the second turbine bucket mode shape and a poor probe sensitivity to the first turbine bucket mode shape.
A composition for copper electroplating comprising at least one source of copper ions and at least one additive obtainable by reacting a) a polyhydric alcohol condensate compound derived from at least one polyalcohol of formula X m by condensation with b) at least one alkylene oxide to form a polyhydric alcohol condensate comprising polyoxyalkylene side chains, wherein m is an integer from 3 to 6 and X is an m-valent linear or branched aliphatic or cycloaliphatic radical having from 2 to 10 carbon atoms, which may be substituted or unsubstituted. a) a polyhydric alcohol condensate compound derived from at least one polyalcohol of formula X m by condensation with b) at least one alkylene oxide to form a polyhydric alcohol condensate comprising polyoxyalkylene side chains, wherein m is an integer from 3 to 6 and X is an m-valent linear or branched aliphatic or cycloaliphatic radical having from 2 to 10 carbon atoms, which may be substituted or unsubstituted.
The hydrogen fumarate salt of a compound of formula Y: wherein, R 1 - R 10 are independently hydrogen or deuterium, wherein R 6 -R 10 are each deuterium, and wherein designation of a position as deuterium has a minimum deuterium incorporation of greater than 50% at that position.
An apparatus for decoding video signal data for an image block, the apparatus comprising: a decoder for decoding color components of the video signal data, wherein said decoder is configured to decode all of the color components of the video signal data using predictors that are independently determined for each of the color components and wherein sampling of the video signal data corresponds to a 4:4:4 format, wherein said decoder is configured to decode all of the color components of the video signal data using independently determined spatial predictors for the intra frame and using the same interpolation filters for the B and P frames for calculating reference pixels at fractional pixel locations, the decoder being configured to decode the color components of the video signal data without applying a residual color transform thereto, and the apparatus further comprising a post-decoder, inverse color transform module, in signal communication with said decoder, for selectively performing an inverse color transform on color components of the video signal data after decoding of the color components by said decoder. a decoder for decoding color components of the video signal data, wherein said decoder is configured to decode all of the color components of the video signal data using predictors that are independently determined for each of the color components and wherein sampling of the video signal data corresponds to a 4:4:4 format, wherein said decoder is configured to decode all of the color components of the video signal data using independently determined spatial predictors for the intra frame and using the same interpolation filters for the B and P frames for calculating reference pixels at fractional pixel locations, the decoder being configured to decode the color components of the video signal data without applying a residual color transform thereto, and the apparatus further comprising a post-decoder, inverse color transform module, in signal communication with said decoder, for selectively performing an inverse color transform on color components of the video signal data after decoding of the color components by said decoder.
An isolated polypeptide comprising an amino acid sequence that has at least 95% amino acid sequence identity to an amino acid sequence selected from the group of sequences of TABLE 1, wherein the polypeptide comprises an amino acid that is a polar amino acid other than K or R at position 423, as determined with reference to SEQ ID NO:1, and wherein the polypeptide has chondrogenic activity.
A door drive mechanism for actuating a door (58, 60) of an elevator car laterally between open and closed positions, which door (58, 60) is mounted on the car for lateral movement relative to the car and which door is connected to the car by at least one pivotable arm (98, 100), the drive mechanism comprising: a linear door drive mechanism configured to be mounted on the car; and at least one door drive mount configured to be attached to the door (58, 60) and in communication with the linear door drive mechanism; wherein the linear door drive mechanism is operable to selectively drive the door drive mount, the attached door (58, 60), and the pivot arm (98, 100) between the open position and the closed position, characterized in that the pivotable arm includes a primary arm portion and a secondary arm portion, and the door includes a high speed door and a low speed door, and the primary arm portion is configured to be attached to the high speed door and the car, and the secondary arm portion is configured to be attached to the primary arm portion and the slow speed door, and wherein selectively operating the linear door drive mechanism is operable to cause the primary arm portion and the secondary arm portion to move both the high speed door and the slow speed door at the same time. a linear door drive mechanism configured to be mounted on the car; and at least one door drive mount configured to be attached to the door (58, 60) and in communication with the linear door drive mechanism; wherein the linear door drive mechanism is operable to selectively drive the door drive mount, the attached door (58, 60), and the pivot arm (98, 100) between the open position and the closed position, characterized in that the pivotable arm includes a primary arm portion and a secondary arm portion, and the door includes a high speed door and a low speed door, and the primary arm portion is configured to be attached to the high speed door and the car, and the secondary arm portion is configured to be attached to the primary arm portion and the slow speed door, and wherein selectively operating the linear door drive mechanism is operable to cause the primary arm portion and the secondary arm portion to move both the high speed door and the slow speed door at the same time.
Combustion-driven pile-driving device (1;101) for driving securing elements into a substrate, with at least one main combustion chamber for a fuel, with a drive piston, which in an initial position is fully retracted and can be driven by expandable gases out of the main combustion chamber in the setting direction, and with a fore-chamber, to which an ignition device is assigned, and in which, before the ignition of a fuel-air mixture in the main combustion chamber, a pressure can be built up which takes effect on the main combustion chamber, wherein a further ignition device is assigned to the main combustion chamber, characterized in that the pile-driving device (1;101) comprises a selection device, by means of which a selection can be made between a weak-energy operation with an ignition in the main combustion chamber and a high-energy operation with an ignition in the fore-chamber.
A plasmonically-coupled resonator system, the system comprising: a plurality of close-packed fractal cells (110, 120; 402) disposed on a supporting surface, wherein each fractal cell includes a fractal shape (A1-A4) defining an electrical resonator, wherein the individual fractal cells (110, 120; 402) are separated from the adjacent fractal cells (110, 120; 402), and wherein the plurality of fractal cells (110, 120; 402) are positioned to support plasmonic transfer of energy between the fractal cells (110, 120; 402); and wherein the plurality of fractal cells (110, 120; 402) are configured as a fractal plasmonic surface FPS (102; 400, 400A, 400B, 400C; 500; 600), wherein the FPS (102; 400, 400A, 400B, 400C; 500; 600) is operative to transfer heat from one location on the FPS (102; 400, 400A, 400B, 400C; 500; 600) to another desired location on the FPS (102; 400, 400A, 400B, 400C; 500; 600); and wherein the fractal cells (110, 120; 402) are separated by about 1/20 λ, wherein λ is within the infrared spectrum and in the range of 700 nm to 1 mm; characterized in that the system further comprises a resistive sheet placed at the edge of the fractal plasmonic surface. a plurality of close-packed fractal cells (110, 120; 402) disposed on a supporting surface, wherein each fractal cell includes a fractal shape (A1-A4) defining an electrical resonator, wherein the individual fractal cells (110, 120; 402) are separated from the adjacent fractal cells (110, 120; 402), and wherein the plurality of fractal cells (110, 120; 402) are positioned to support plasmonic transfer of energy between the fractal cells (110, 120; 402); and wherein the plurality of fractal cells (110, 120; 402) are configured as a fractal plasmonic surface FPS (102; 400, 400A, 400B, 400C; 500; 600), wherein the FPS (102; 400, 400A, 400B, 400C; 500; 600) is operative to transfer heat from one location on the FPS (102; 400, 400A, 400B, 400C; 500; 600) to another desired location on the FPS (102; 400, 400A, 400B, 400C; 500; 600); and wherein the fractal cells (110, 120; 402) are separated by about 1/20 λ, wherein λ is within the infrared spectrum and in the range of 700 nm to 1 mm; characterized in that the system further comprises a resistive sheet placed at the edge of the fractal plasmonic surface.
Device for the axial movement of a transmission element, comprising: • a shift drum rotatably mounted about a rotational axis with a shift groove formed at least partially circumferentially around the rotational axis in its outer surface, the groove being at least partially inclined in the axial direction, • a cage holding the shift drum, with a cage wall separating a cage interior from a cage exterior, and a wall slot extending axially through the cage wall, which opens the cage interior to the cage exterior, • a carriage held axially movable between the shift drum and the cage wall in the area of the wall slot, and • a shift fork with two fork legs, between which the transmission element is form-fittingly receivable for axial movement in the axial direction, and a guide pin adjoining the fork legs, which is guided through the wall slot and the carriage and inserted into the shift groove, characterized in that the shift groove is formed in the shift drum as a closed curve. • a shift drum rotatably mounted about a rotational axis with a shift groove formed at least partially circumferentially around the rotational axis in its outer surface, the groove being at least partially inclined in the axial direction, • a cage holding the shift drum, with a cage wall separating a cage interior from a cage exterior, and a wall slot extending axially through the cage wall, which opens the cage interior to the cage exterior, • a carriage held axially movable between the shift drum and the cage wall in the area of the wall slot, and • a shift fork with two fork legs, between which the transmission element is form-fittingly receivable for axial movement in the axial direction, and a guide pin adjoining the fork legs, which is guided through the wall slot and the carriage and inserted into the shift groove,
A method for diagnosing psoriasis (PS or PSOR) and/or Crohn's disease in a patient, the method comprising: a) detecting in a nucleic acid in a sample obtained from said patient, a genetic alteration in ADCY7 wherein the genetic alteration in ADCY7 is correlated with presence of PS and/or CD in the patient; and b) diagnosing the patient with PS and/or CD. a) detecting in a nucleic acid in a sample obtained from said patient, a genetic alteration in ADCY7 wherein the genetic alteration in ADCY7 is correlated with presence of PS and/or CD in the patient; and b) diagnosing the patient with PS and/or CD.
A method for producing L-cysteine, a related substance thereof, or a mixture thereof, which comprises: culturing a bacterium belonging to the family Enterobacteriaceae in a medium containing thiosulfate, which bacterium has L-cysteine-producing ability and is modified so that expression of the cysG gene is increased by increasing copy number of the gene, or by modifying an expression control sequence of the gene; and collecting L-cysteine, a related substance thereof, or a mixture thereof accumulated in the medium, wherein the related substance is selected from the group consisting of L-cystine, S-sulfocysteine, a thiazolidine derivative, a hemithioketal, γ-glutamylcysteine, glutathione, cystathionine, homocysteine, L-methionine, and S-adenosylmethionine. culturing a bacterium belonging to the family Enterobacteriaceae in a medium containing thiosulfate, which bacterium has L-cysteine-producing ability and is modified so that expression of the cysG gene is increased by increasing copy number of the gene, or by modifying an expression control sequence of the gene; and collecting L-cysteine, a related substance thereof, or a mixture thereof accumulated in the medium,
A misalignment sensing system (200, 300, 400, 500) for a molding structure, the molding structure being positionable in use in a mold for producing molded articles, the molding structure including a first component and a second component, at least one of the first component and the second component being selectively repositionable between a closed configuration of the mold structure and an open configuration of the mold structure, the misalignment sensing system comprising: an alignment member comprising: a male portion (202, 302, 402, 502) coupled to and extending from the first component of the molding structure, and a female portion defined in the second component of the molding structure and being configured to receive the male portion when the molding structure is in a closed configuration; and at least one sensor connected to one of the male portion (202, 302, 402, 502) and the female portion, and configured to detect a deformation of any one of the male portion (202, 302, 402, 502) and the female portion, which deformation is induced by a misalignment of between the first component of the molding structure and the second component of the molding structure, the misalignment sensing system (200, 300, 400, 500) further comprising: a control unit communicatively coupled to the at least one sensor, and configured to receive a sensed misalignment condition from the at least one sensor for processing thereof. an alignment member comprising: a male portion (202, 302, 402, 502) coupled to and extending from the first component of the molding structure, and a female portion defined in the second component of the molding structure and being configured to receive the male portion when the molding structure is in a closed configuration; and at least one sensor connected to one of the male portion (202, 302, 402, 502) and the female portion, and configured to detect a deformation of any one of the male portion (202, 302, 402, 502) and the female portion, which deformation is induced by a misalignment of between the first component of the molding structure and the second component of the molding structure, a male portion (202, 302, 402, 502) coupled to and extending from the first component of the molding structure, and a female portion defined in the second component of the molding structure and being configured to receive the male portion when the molding structure is in a closed configuration; and at least one sensor connected to one of the male portion (202, 302, 402, 502) and the female portion, and configured to detect a deformation of any one of the male portion (202, 302, 402, 502) and the female portion, which deformation is induced by a misalignment of between the first component of the molding structure and the second component of the molding structure, the misalignment sensing system (200, 300, 400, 500) further comprising: a control unit communicatively coupled to the at least one sensor, and configured to receive a sensed misalignment condition from the at least one sensor for processing thereof.
Fuel tank venting system for an automotive vehicle comprising: - a fuel tank comprising a vapor dome, - a refueling pipe, - a fuel vapor trap that is connected to the fuel tank by an inlet conduit, wherein the inlet conduit is connected with the fuel tank through at least one orifice which is permanently open, the orifice being arranged in the vapor dome of the fuel tank in a static condition, preferably arranged in a wall of the fuel tank, more preferably arranged in a top wall of the fuel tank, the fuel tank venting system being characterized in that it comprises: - a normally closed shutter device that communicates with the atmosphere and that is connected to the fuel vapor trap by an outlet conduit, the normally closed shutter device comprising an electrically-actuated valve being closed when the electrically-actuated valve is de-energized, wherein the normally closed shutter device is configured to be open during vehicle refueling process and to be closed when the fuel in the fuel tank reaches a predetermined fill level and when the vehicle is in normal operation. - a fuel tank comprising a vapor dome, - a refueling pipe, - a fuel vapor trap that is connected to the fuel tank by an inlet conduit, wherein the inlet conduit is connected with the fuel tank through at least one orifice which is permanently open, the orifice being arranged in the vapor dome of the fuel tank in a static condition, preferably arranged in a wall of the fuel tank, more preferably arranged in a top wall of the fuel tank, the fuel tank venting system being characterized in that it comprises: - a normally closed shutter device that communicates with the atmosphere and that is connected to the fuel vapor trap by an outlet conduit, the normally closed shutter device comprising an electrically-actuated valve being closed when the electrically-actuated valve is de-energized, - a normally closed shutter device that communicates with the atmosphere and that is connected to the fuel vapor trap by an outlet conduit, the normally closed shutter device comprising an electrically-actuated valve being closed when the electrically-actuated valve is de-energized, wherein the normally closed shutter device is configured to be open during vehicle refueling process and to be closed when the fuel in the fuel tank reaches a predetermined fill level and when the vehicle is in normal operation.