mhurhangee/ep-ind-claims huggingface dataset:
A method for preventing excessive loading on a wind turbine, the method comprising: determining a current wind turbine parameter, at least representative of a steady-state loading experienced by the wind turbine during turbine operation, using at least one operating condition via a processor, the operating condition indicative of wind turbine operation; storing the current wind turbine parameter in a memory store over a predetermined time period; calculating a standard deviation of a plurality of the stored current wind turbine parameters via the processor; determining a future wind turbine parameter via the processor; calculating a maximum wind turbine parameter, via the processor, as a function of the standard deviation of the plurality of stored wind turbine parameters and the future wind turbine parameter; controlling the wind turbine, via a controller, based on a difference between the maximum wind turbine parameter and a parameter setpoint to prevent excessive loading on the wind turbine; and applying one of a constant or variable gain to the standard deviation. determining a current wind turbine parameter, at least representative of a steady-state loading experienced by the wind turbine during turbine operation, using at least one operating condition via a processor, the operating condition indicative of wind turbine operation; storing the current wind turbine parameter in a memory store over a predetermined time period; calculating a standard deviation of a plurality of the stored current wind turbine parameters via the processor; determining a future wind turbine parameter via the processor; calculating a maximum wind turbine parameter, via the processor, as a function of the standard deviation of the plurality of stored wind turbine parameters and the future wind turbine parameter; controlling the wind turbine, via a controller, based on a difference between the maximum wind turbine parameter and a parameter setpoint to prevent excessive loading on the wind turbine; and applying one of a constant or variable gain to the standard deviation.
A system for growing vegetation, comprising: a rotating growth mat; a plurality of rollers (104, 106), wherein said rotating growth mat is suspended vertically from at least one of said plurality of rollers; and a cutting device, wherein said mat comprises a growth side and an inhibited side, wherein said cutting device is configured to cut vegetation grown on said growth side of said rotating growth mat, characterised in that said plurality of rollers are configured such that a mass of the mat on the growth side is greater than a mass on the inhibited side, and as a result, the growth side falls downward and the inhibited side moves upward. a rotating growth mat; a plurality of rollers (104, 106), wherein said rotating growth mat is suspended vertically from at least one of said plurality of rollers; and a cutting device, wherein said mat comprises a growth side and an inhibited side, wherein said cutting device is configured to cut vegetation grown on said growth side of said rotating growth mat, characterised in that said plurality of rollers are configured such that a mass of the mat on the growth side is greater than a mass on the inhibited side, and as a result, the growth side falls downward and the inhibited side moves upward.
An epoxy-resin composition comprising a resin component which comprises at least one epoxy resin, and a hardener component which comprises at least one aminoalkylimidazole compound, at least one latent hardener and at least one diazabicycloalkylen compound of the general formula I where X and Y are respectively mutually independently an alkylen group, preferably having from 3 to 5 carbon atoms, where the amount of the aminoalkylimidazole compounds used is in the range from 0.007 to 0.025 mol per mole of epoxy groups of the entire composition, and where the total amount of primary aliphatic amine groups of the aminoalkylimidazole compounds and any further primary amines optionally comprised does not exceed a proportion of 0.09 mol per mole of epoxy groups of the entire composition.
A method for converting an electric and/or electronic waste source to a Clean Fuel Gas source and a Char source comprising: inputting an electric and electronic waste source into a thermolysis system; undergoing a depolymerization and a cracking reaction of hydrocarbons in the waste source; destroying and/or removing toxic compounds present in the waste sources; and generating the Clean Fuel Gas source and the Char source, wherein the thermolysis system comprises at least one primary reactor and at least one secondary reactor; wherein the at least one primary reactor or the at least one secondary reactor has a process temperature of from 300°C to 800°C for the waste source to undergo at least partial gasification; wherein any oils and tars created are recycled into the secondary reactor and a cracking reactor to be converted into additional Clean Fuel Gas source; wherein the method comprises a gas scrubber(s) step, wherein the Clean Fuel Gas source is scrubbed and vapor components undergo fractionated condensation; wherein the method does not generate any toxic halogenated organic compounds in the process of converting the waste source to the Clean Fuel Gas source and the Char source; wherein the Clean Fuel Gas source is used for power to a system or application; wherein the Char source contains recoverable metals; wherein the Clean Fuel Gas source and the Char source do not include tars and/or oils; and wherein the Clean Fuel Gas source and Char source contain less than about 10 ppb of halogenated organic compounds. inputting an electric and electronic waste source into a thermolysis system; undergoing a depolymerization and a cracking reaction of hydrocarbons in the waste source; destroying and/or removing toxic compounds present in the waste sources; and generating the Clean Fuel Gas source and the Char source, wherein the thermolysis system comprises at least one primary reactor and at least one secondary reactor; wherein the at least one primary reactor or the at least one secondary reactor has a process temperature of from 300°C to 800°C for the waste source to undergo at least partial gasification; wherein any oils and tars created are recycled into the secondary reactor and a cracking reactor to be converted into additional Clean Fuel Gas source; wherein the method comprises a gas scrubber(s) step, wherein the Clean Fuel Gas source is scrubbed and vapor components undergo fractionated condensation; wherein the method does not generate any toxic halogenated organic compounds in the process of converting the waste source to the Clean Fuel Gas source and the Char source; wherein the Clean Fuel Gas source is used for power to a system or application; wherein the Char source contains recoverable metals; wherein the Clean Fuel Gas source and the Char source do not include tars and/or oils; and wherein the Clean Fuel Gas source and Char source contain less than about 10 ppb of halogenated organic compounds.
A noise attenuation arrangement for use in adjoining a support structure to a pipe that passes through the support structure, the arrangement comprising: a mount attachable to the support structure; radial bellows connected to the mount, the bellows being arranged to extend, in use, circumferentially around a pipe and be connectable thereto such that, in use, a volume is defined by the bellows, mount and pipe, wherein at least a portion of a surface of the mount that defines a surface of the volume is profiled to undulate; and a resilient material for noise attenuation provided in the volume defined by the bellows, mount and pipe, and which contacts each of the bellows, mount and, in use, the pipe. a mount attachable to the support structure; radial bellows connected to the mount, the bellows being arranged to extend, in use, circumferentially around a pipe and be connectable thereto such that, in use, a volume is defined by the bellows, mount and pipe, wherein at least a portion of a surface of the mount that defines a surface of the volume is profiled to undulate; and a resilient material for noise attenuation provided in the volume defined by the bellows, mount and pipe, and which contacts each of the bellows, mount and, in use, the pipe.
A holder (20, 21) for an optical system of an endoscope, comprising a take-up region, configured to receive an optical element, and at least one fixing region (26, 27), which is configured to fix the holder (20, 21) in the optical system by means of a soldered connection and the fixing region (26, 27) is separate from the take-up region, wherein the material of the holder (20, 21) is a base material that is provided with a coating, a material of the coating having better solderability than the base material, characterized in that the coating in the take-up region being removed by means of laser-assisted surface treatment and the surface of the take-up region being blackened by means of laser-assisted surface treatment.
A stationary calibration unit for calibrating a compass of a flight controller in an unmanned aerial vehicle associated with said calibration unit to local Earth magnetic field without moving said compass through a sequence of movements of a calibration routine, said stationary calibration unit comprising: a calibration controller; a calibration compass, said calibration compass being a duplicate of said compass of said flight controller of said unmanned aerial vehicle; and an actuator operably coupled to said calibration compass; said calibration controller being configured to command said actuator to move said calibration compass through a sequence of movements of a calibration routine to calibrate said calibration compass relative to the local Earth magnetic field and thereby generate calibration parameters, said calibration controller being configured to record calibration parameters resulting from performing said calibration routine, and said calibration controller being configured to transmit said calibration parameters to said flight controller of said unmanned aerial vehicle, preferably via a data link. a calibration controller; a calibration compass, said calibration compass being a duplicate of said compass of said flight controller of said unmanned aerial vehicle; and an actuator operably coupled to said calibration compass; said calibration controller being configured to command said actuator to move said calibration compass through a sequence of movements of a calibration routine to calibrate said calibration compass relative to the local Earth magnetic field and thereby generate calibration parameters, said calibration controller being configured to record calibration parameters resulting from performing said calibration routine, and said calibration controller being configured to transmit said calibration parameters to said flight controller of said unmanned aerial vehicle, preferably via a data link.
A multi-cable terminal comprising: a plurality of sub-structures, each of the sub-structures defining a sub-enclosure and being openable independent of the other sub-structures to provide access to the sub-enclosure; and a frame that secures the plurality of sub-structures such that the frame and sub-structures define a main enclosure, wherein each of the sub-enclosures is configured to accommodate at least an end of an internal cable (157, 210), an end of a service cable, and a plurality of cable connection elements, such that when the end of the internal cable, the end of the service cable, and the cable connection elements are positioned in the sub-enclosure and a cable seal for the service cable is positioned in the corresponding sub-structure, a watertight seal is created around the cable connection elements when the corresponding sub-structure is closed, wherein each of the plurality of sub-structures comprises a port, which port comprises a port opening and a port seal, and wherein, for each sub-structure, the port is configured such that the internal cable may be provided to the sub-enclosure of the sub-structure through the port, the port providing a watertight seal between the internal cable and the sub-structure and a watertight seal between the sub-enclosure and the main enclosure. a plurality of sub-structures, each of the sub-structures defining a sub-enclosure and being openable independent of the other sub-structures to provide access to the sub-enclosure; and a frame that secures the plurality of sub-structures such that the frame and sub-structures define a main enclosure, wherein each of the sub-enclosures is configured to accommodate at least an end of an internal cable (157, 210), an end of a service cable, and a plurality of cable connection elements, such that when the end of the internal cable, the end of the service cable, and the cable connection elements are positioned in the sub-enclosure and a cable seal for the service cable is positioned in the corresponding sub-structure, a watertight seal is created around the cable connection elements when the corresponding sub-structure is closed, wherein each of the plurality of sub-structures comprises a port, which port comprises a port opening and a port seal, and wherein, for each sub-structure, the port is configured such that the internal cable may be provided to the sub-enclosure of the sub-structure through the port, the port providing a watertight seal between the internal cable and the sub-structure and a watertight seal between the sub-enclosure and the main enclosure.
A closing system for a row unit of a work machine, the closing system comprising: one or more closing wheels that are operable to contact a ground surface, a first actuator and a second actuator, the first actuator operable to engage the second actuator, the second actuator configured to engage the one or more closing wheels and to absorb a shock force, the first actuator is operable to engage the second actuator to increase an amount of force that the second actuator applies to the one or more closing wheels, wherein the second actuator includes one or more springs that are operable to apply an initial amount of force to the one or more closing wheels and wherein the first actuator is operable to apply an actuator force to the one or more springs to increase the amount of force that the one or more springs apply to the one or more closing wheels, and wherein a shank of the row unit pivotally coupled at a pivot to a shank extension and the one or more closing wheels are rotatably mounted on the shank extension, characterized in that the first actuator is arranged parallel to the second actuator. one or more closing wheels that are operable to contact a ground surface, a first actuator and a second actuator, the first actuator operable to engage the second actuator, the second actuator configured to engage the one or more closing wheels and to absorb a shock force, the first actuator is operable to engage the second actuator to increase an amount of force that the second actuator applies to the one or more closing wheels, wherein the second actuator includes one or more springs that are operable to apply an initial amount of force to the one or more closing wheels and wherein the first actuator is operable to apply an actuator force to the one or more springs to increase the amount of force that the one or more springs apply to the one or more closing wheels, and wherein a shank of the row unit pivotally coupled at a pivot to a shank extension and the one or more closing wheels are rotatably mounted on the shank extension, characterized in that the first actuator is arranged parallel to the second actuator.
An anti-corrosion coating to protect against corrosion, comprising a high-density protective coating with low defect density, without cracks, agglomerates or pores in a milimeter or micrometer range, on a substrate which is prone to corrosion containing pre-condensed coat-forming alkoxysilane precursors, wherein the molecules of the pre-condensed coat-forming alkoxysilane precursors are linear and short-chained and built up from monomer units of the applied alkoxysilane precursors, and possess remaining reactive hydroxy groups odr remaining hydrolysable alkoxy groups, wherein the molecules of the pre-condensed coat-forming alkoxysilane precursors are cross-linked with each other, wherein the high-density protective coating has a coating thickness of at least 50 μ m.
A process for the elongation of (an) alkyl glycoside(s) by enzymatic synthesis, comprising: a. providing a glycosyl donor having at least 2 monosaccharide residues and comprising a compound selected from the group consisting of cyclic carbohydrates, linear oligosaccharides and polysaccharides; b. providing an alkyl glycoside containing at least 7 carbon atoms in the alkyl chain as a glycosyl acceptor; c. providing an enzyme capable of catalyzing the transfer of at least 2 monosaccharide residues at a time from the glycosyl donor to the glycosyl acceptor, the enzyme being selected from the group consisting of cyclomaltodextrin glucanotransferase, EC number 2.4.1.19, and 4-alpha-glucanotranferase, EC number 2.4.1.25; and d. allowing the glycosyl donor and glycosyl acceptor to react with each other in the presence of the enzyme to produce an alkyl glycoside having an elongated carbohydrate part. a. providing a glycosyl donor having at least 2 monosaccharide residues and comprising a compound selected from the group consisting of cyclic carbohydrates, linear oligosaccharides and polysaccharides; b. providing an alkyl glycoside containing at least 7 carbon atoms in the alkyl chain as a glycosyl acceptor; c. providing an enzyme capable of catalyzing the transfer of at least 2 monosaccharide residues at a time from the glycosyl donor to the glycosyl acceptor, the enzyme being selected from the group consisting of cyclomaltodextrin glucanotransferase, EC number 2.4.1.19, and 4-alpha-glucanotranferase, EC number 2.4.1.25; and d. allowing the glycosyl donor and glycosyl acceptor to react with each other in the presence of the enzyme to produce an alkyl glycoside having an elongated carbohydrate part.
A hydraulic damper for a mount assembly, the hydraulic damper comprising: a housing defining a cavity, the housing integrally formed to include a plurality of retention features and a generally cylindrical portion including a sidewall having a stepped configuration; and a subassembly at least partially disposed in the cavity and secured relative to the housing by the plurality of retention features, the subassembly including a washer, an inertia track circumferentially surrounding the washer, a compliance member circumferentially surrounding the inertia track, the compliance member being elastically deformable in the radial direction, and a rigid outer sidewall having an upper end and a lower end, the rigid outer sidewall bonded to the compliance member; wherein at least one of the plurality of retention features and the subassembly is elastically deformable in a radial direction from an initial diameter to an elastically deformed diameter such that the subassembly is sized to axially pass by the plurality of retention features for insertion of the subassembly into the housing, wherein the lower end of the rigid outer sidewall of the subassembly is adjacent to a step of the sidewall and the plurality of retention features radially extend over the upper end of the rigid outer sidewall of the subassembly to secure the subassembly relative to the housing. a housing defining a cavity, the housing integrally formed to include a plurality of retention features and a generally cylindrical portion including a sidewall having a stepped configuration; and a subassembly at least partially disposed in the cavity and secured relative to the housing by the plurality of retention features, the subassembly including a washer, an inertia track circumferentially surrounding the washer, a compliance member circumferentially surrounding the inertia track, the compliance member being elastically deformable in the radial direction, and a rigid outer sidewall having an upper end and a lower end, the rigid outer sidewall bonded to the compliance member; wherein at least one of the plurality of retention features and the subassembly is elastically deformable in a radial direction from an initial diameter to an elastically deformed diameter such that the subassembly is sized to axially pass by the plurality of retention features for insertion of the subassembly into the housing, wherein the lower end of the rigid outer sidewall of the subassembly is adjacent to a step of the sidewall and the plurality of retention features radially extend over the upper end of the rigid outer sidewall of the subassembly to secure the subassembly relative to the housing.
A damping arrangement, comprising a rail having a rail head, a rail web and a rail foot, comprising at least one lateral profile (7, 8), wherein the lateral profile (7, 8) is in contact with the rail substantially over the entire length of the lateral profile, and a cast base arranged underneath the rail foot, wherein the lateral profile (7, 8) is formed in a strip-shaped manner and is in contact with the contour of the rail, characterized in that the lateral profile (7, 8) a. engages around the edge of the rail foot from the upper side of the rail foot facing the rail head, b. is flush with the lower side of the rail foot facing away from the rail head, and c. is enclosed by the cast base in the region of the rail foot edge, wherein the overlapping region between the cast base and the lateral profile (7, 8) is at most as large or smaller as the height of the rail foot edge. a. engages around the edge of the rail foot from the upper side of the rail foot facing the rail head, b. is flush with the lower side of the rail foot facing away from the rail head, and c. is enclosed by the cast base in the region of the rail foot edge, wherein the overlapping region between the cast base and the lateral profile (7, 8) is at most as large or smaller as the height of the rail foot edge.