mhurhangee/ep-ind-claims huggingface dataset:
A scissors lift vehicle comprising: a carriage comprising a plurality of independently steerable wheels configured to engage a travel surface, the wheels comprising an axis of rotation and a circular profile having a radius R, the wheels spaced apart in a fore/aft direction and in a right/left direction; a base coupled to the carriage between the wheels spaced apart in the right/left direction within a profile of the wheels and positioned less than R above the travel surface during operation of the scissors lift vehicle; and a scissors stack assembly comprising a plurality of scissors linkages extendable from a retracted position, where the scissors linkages are approximately horizontally configured to an extended position, where the scissors linkages are approximately orthogonally configured with respect to each other, the scissors stack assembly pivotally coupled to the base through a first pair of scissors linkages, the scissors stack assembly slidably coupled to the base through a second pair of scissors linkages. a carriage comprising a plurality of independently steerable wheels configured to engage a travel surface, the wheels comprising an axis of rotation and a circular profile having a radius R, the wheels spaced apart in a fore/aft direction and in a right/left direction; a base coupled to the carriage between the wheels spaced apart in the right/left direction within a profile of the wheels and positioned less than R above the travel surface during operation of the scissors lift vehicle; and a scissors stack assembly comprising a plurality of scissors linkages extendable from a retracted position, where the scissors linkages are approximately horizontally configured to an extended position, where the scissors linkages are approximately orthogonally configured with respect to each other, the scissors stack assembly pivotally coupled to the base through a first pair of scissors linkages, the scissors stack assembly slidably coupled to the base through a second pair of scissors linkages.
Method for treating objects, in particular vehicle bodies, in which method a) an object on a support structure is conveyed through a treatment chamber in which an operating atmosphere which has a higher temperature than the atmosphere outside the treatment chamber is generated such that the object as well as the support structure heat up; b) the object on the support structure, after passing through the treatment chamber, is conveyed through a cooling zone in which the object and the support structure cool down, characterized in that c) at least the support structure in the cooling zone is cooled in that the support structure is impinged on with a liquid or solid cooling medium. a) an object on a support structure is conveyed through a treatment chamber in which an operating atmosphere which has a higher temperature than the atmosphere outside the treatment chamber is generated such that the object as well as the support structure heat up; b) the object on the support structure, after passing through the treatment chamber, is conveyed through a cooling zone in which the object and the support structure cool down,
Method for recovering non-ferrous metals from industrial wastewater, comprising: A: complexing the metal to be recovered by adding siderophores to the industrial wastewater, wherein the siderophores are selected from desferrioxamine B (DFO-B), desferrioxamine E (DFO-E), marinobactins, aquachelins, amphibactins, ochrobactins and synechobactins and the salts thereof, B: separating the metal-siderophore complex, C: releasing the metal from the metal-siderophore complex, D: separating the metal, E: recovering the siderophore, and F: separating the siderophore, wherein in step C: releasing the metal from the metal-siderophore complex is executed via adding Fe(lll) ions and forming an Fe -siderophore complex, and E: recovering the siderophore is executed via adding a reductant and/or a chelator, or in step C: releasing the metal from the metal-siderophore complex is executed via adding a chelator, as a result of which a metal-chelator complex is formed, and D: wherein the metal is separated as a metal-chelator complex. A: complexing the metal to be recovered by adding siderophores to the industrial wastewater, wherein the siderophores are selected from desferrioxamine B (DFO-B), desferrioxamine E (DFO-E), marinobactins, aquachelins, amphibactins, ochrobactins and synechobactins and the salts thereof, B: separating the metal-siderophore complex, C: releasing the metal from the metal-siderophore complex, D: separating the metal, E: recovering the siderophore, and F: separating the siderophore, C: releasing the metal from the metal-siderophore complex is executed via adding Fe(lll) ions and forming an Fe -siderophore complex, and E: recovering the siderophore is executed via adding a reductant and/or a chelator, C: releasing the metal from the metal-siderophore complex is executed via adding a chelator, as a result of which a metal-chelator complex is formed, and D: wherein the metal is separated as a metal-chelator complex.
Method for fuelling a means of transport by means of a hydrogen fuelling device, having the steps of: - establishing a communication connection between the hydrogen fuelling device and the means of transport, - coupling a hydrogen delivery device to a tank of the means of transport and fuelling the means of transport, - sensing a first hydrogen pressure of a hydrogen stream delivered by the hydrogen delivery device in the fuelling device during fuelling, - sensing a second hydrogen pressure of the received hydrogen stream and/or of the tank in the means of transport during fuelling, - determining a deviation between the first hydrogen pressure and the second hydrogen pressure, and - changing a sensor characteristic curve in the means of transport in order to correct the sensing of the second hydrogen pressure if the deviation exceeds a first threshold value. - establishing a communication connection between the hydrogen fuelling device and the means of transport, - coupling a hydrogen delivery device to a tank of the means of transport and fuelling the means of transport, - sensing a first hydrogen pressure of a hydrogen stream delivered by the hydrogen delivery device in the fuelling device during fuelling, - sensing a second hydrogen pressure of the received hydrogen stream and/or of the tank in the means of transport during fuelling, - determining a deviation between the first hydrogen pressure and the second hydrogen pressure, and - changing a sensor characteristic curve in the means of transport in order to correct the sensing of the second hydrogen pressure if the deviation exceeds a first threshold value.
A composite tube assembly comprising: a tube formed of a wound fiber-reinforced composite material; a metallic end fitting including a stem and a transmission coupling at a distal end of the stem; the stem including a grip region having a plurality of external surfaces; a plurality of compression inserts respectively associated with each of the plurality of external surfaces; wherein an end portion of the tube is wound around the grip region of the stem and the compression inserts; characterised in that the plurality of external surfaces are flat surfaces; and wherein each of the plurality of compression inserts has a circular segment shape including a planar base facing a respective one of the plurality of flat external surfaces and a rounded surface opposite the planar base, and the end portion of the tube wound around the compression inserts has a round outer cross-sectional shape; wherein the compression inserts are located between a radially inner winding of the fiber-reinforced composite material and a radially outer winding of the fiber-reinforced composite material. a tube formed of a wound fiber-reinforced composite material; a metallic end fitting including a stem and a transmission coupling at a distal end of the stem; the stem including a grip region having a plurality of external surfaces; a plurality of compression inserts respectively associated with each of the plurality of external surfaces; wherein an end portion of the tube is wound around the grip region of the stem and the compression inserts; characterised in that the plurality of external surfaces are flat surfaces; and wherein each of the plurality of compression inserts has a circular segment shape including a planar base facing a respective one of the plurality of flat external surfaces and a rounded surface opposite the planar base, and the end portion of the tube wound around the compression inserts has a round outer cross-sectional shape; wherein the compression inserts are located between a radially inner winding of the fiber-reinforced composite material and a radially outer winding of the fiber-reinforced composite material.
Sealing device in which a sealed fluid is sealed by an end-surface lip coming into slidable intimate contact with an axial-direction end surface or a slinger which in use, is secured to the outer circumference of a rotating shaft and rotates concomitantly with the abovementioned rotating shaft, and in which the abovementioned sealed fluid is sealed by means of a pumping action exhibited when a screw portion provided on the axial-direction end surface of the abovementioned slinger rotates, characterized in that the abovementioned slinger is provided with a region with no screw portion, in which no screw portion is provided, on the outer circumferential side of a region formed with a screw portion in which the abovementioned screw portion is provided, and in that a lip end of the abovementioned end-surface lip is in slidable intimate contact with the abovementioned region formed with a screw portion, and a lip end of an auxiliary lip moulded integrally at a distal end portion of said end-surface lip is in slidable intimate contact with the abovementioned region with no screw portion.
Induction hob apparatus having at least two induction heating wires (12a-d) and having at least one circuit board (14a-d) on and/or in which the induction heating wires (12a-d) are arranged, wherein the circuit board (14a-d) is designed as a flexible circuit board, characterised in that the circuit board (14a-d) is wound to form a coil (20a-d).
An aerosol-generating system comprising a main unit and a cartridge that is removably coupled to the main unit, wherein the cartridge comprises a liquid storage portion containing a liquid aerosol-forming substrate and a fluid-permeable heater assembly, and the main unit comprises a power supply, the heater assembly comprising: an electrically insulating substrate, an aperture being formed in the electrically insulating substrate; and a heater element fixed to the electrically insulating substrate, the heater element spanning the aperture and comprising a plurality of electrically conductive filaments connected to first and second electrically conductive contact portions, the first and second electrically conductive contact portions positioned on opposite sides of the aperture to one another, wherein the first and second electrically conductive contact portions are configured to allow connection with the power supply, and wherein the heater assembly is provided at an end of the cartridge that is opposite to a mouthpiece portion of the system. an electrically insulating substrate, an aperture being formed in the electrically insulating substrate; and a heater element fixed to the electrically insulating substrate, the heater element spanning the aperture and comprising a plurality of electrically conductive filaments connected to first and second electrically conductive contact portions, the first and second electrically conductive contact portions positioned on opposite sides of the aperture to one another, wherein the first and second electrically conductive contact portions are configured to allow connection with the power supply, and wherein the heater assembly is provided at an end of the cartridge that is opposite to a mouthpiece portion of the system.
A method of needling a fiber layer, the method comprising at least: - a first needling step for needling the fiber layer by a needling head, during which the fiber layer is caused to move in translation relative to the needling head, the needles of the needling head being distributed uniformly over a surface of the needling head; - a shift step, performed after the first needling step, during which the fiber layer is shifted relative to the needling head along a shift direction through a distance d equal to N.x.p, where N is an integer not less than 1, x is a coefficient greater than 0, and less than 1, and p designates the pitch of two consecutive needles of the needling head along the shift direction; and - a second needling step for needling the fiber layer by the needling head, performed after the shift step, and during which the fiber layer is moved in translation relative to the needling head, the needles not penetrating, during the second needling step, into the holes formed during the first needling step. - a first needling step for needling the fiber layer by a needling head, during which the fiber layer is caused to move in translation relative to the needling head, the needles of the needling head being distributed uniformly over a surface of the needling head; - a shift step, performed after the first needling step, during which the fiber layer is shifted relative to the needling head along a shift direction through a distance d equal to N.x.p, where N is an integer not less than 1, x is a coefficient greater than 0, and less than 1, and p designates the pitch of two consecutive needles of the needling head along the shift direction; and - a second needling step for needling the fiber layer by the needling head, performed after the shift step, and during which the fiber layer is moved in translation relative to the needling head, the needles not penetrating, during the second needling step, into the holes formed during the first needling step.
An information transmission method, comprising: when a network edge node is connected to a virtual network, the network edge node encapsulates a virtual network identifier of the connected virtual network into a multicast protocol packet; network edge nodes connected to the virtual network exchange virtual network identifiers of their respective connected virtual networks with each other through a multicast protocol extension; the network edge node determines, according to one or more received multicast protocol packets, a network edge node set corresponding to the virtual network identifier of the virtual network to which the network edge node per se is connected, wherein the network edge node organizes and generates a corresponding relationship between the virtual network identifier and the corresponding network edge node set according to received multicast protocol information; and the network edge node encapsulates to-be-transmitted data of the virtual network to which the network edge node per se is connected, and sends, in a multicast manner, a packet encapsulated with the to-be-transmitted data to one or more network edge nodes in the network edge node set corresponding to the virtual network identifier of the virtual network. when a network edge node is connected to a virtual network, the network edge node encapsulates a virtual network identifier of the connected virtual network into a multicast protocol packet; network edge nodes connected to the virtual network exchange virtual network identifiers of their respective connected virtual networks with each other through a multicast protocol extension; the network edge node determines, according to one or more received multicast protocol packets, a network edge node set corresponding to the virtual network identifier of the virtual network to which the network edge node per se is connected, wherein the network edge node organizes and generates a corresponding relationship between the virtual network identifier and the corresponding network edge node set according to received multicast protocol information; and the network edge node encapsulates to-be-transmitted data of the virtual network to which the network edge node per se is connected, and sends, in a multicast manner, a packet encapsulated with the to-be-transmitted data to one or more network edge nodes in the network edge node set corresponding to the virtual network identifier of the virtual network.
A process for preparing a compound of formula V, comprising continuously adding a compound of formula II and a primary amine of formula IV to a third reaction device to carry out the following reaction, wherein R represents C 1 -C 18 alkyl or C 3 -C 18 cycloalkyl, optionally substituted with one or more substituents individually and independently selected from substituted or unsubstituted cycloalkyl, substituted or unsubstituted alkoxy, alkylthio, halo, carbonyl, keto, nitro, silyl, trihalomethanesulfonyl, and amino groups including disubstituted amino groups.
Antimicrobial peptide for use in a method of preventing or treating onychomycosis, wherein the antimicrobial peptide comprises the amino acid sequence RRRRSVQWCA or ACWQVSRRRR or GRRRRSVQWCA or ACWQVSRRRRG, or a functional mutant thereof.
A method (10, 20, 30, 40) of changing operating mode of an optical amplifier in an amplifier chain in an optical network, the optical amplifier initially configured to operate in a first mode to apply a substantially constant first gain to an optical signal comprising a plurality of optical channels, the method comprising, after a unique time period that is unique to the optical amplifier within the amplifier chain (12, 22, 34, 42), configuring the optical amplifier to operate in a second mode to apply a second gain to the optical signal so that the optical power of the optical signal is maintained at a target optical power dependent on a current plurality of optical channels in the optical signal (14, 24), wherein the unique time period is based on a preselected time period and the optical amplifier is configured to operate in the second mode on expiry of said unique time period, and wherein the unique time period is managed in parallel with a time period of any other amplifier in the amplifier chain and no communication or coordination is performed between the optical amplifier and any other amplifier in the amplifier chain regarding the unique time period.
A method for tuning a fleece nozzle to a spread sliver disposed at a discharge of a drafting system of a textile machine, wherein the spread sliver can be consolidated by means of the fleece nozzle so that a strand-shaped sliver leaves the fleece nozzle, wherein the fleece nozzle is selected from a plurality of different fleece nozzles depending on at least one sliver property of the spread sliver characterized in that an orientation and/or position of the fleece nozzle to the sliver is adjusted by adjusting the fleece nozzle depending on the sliver property. wherein the fleece nozzle is selected from a plurality of different fleece nozzles depending on at least one sliver property of the spread sliver characterized in that an orientation and/or position of the fleece nozzle to the sliver is adjusted by adjusting the fleece nozzle depending on the sliver property.
A joint implant, comprising: a neck; and a blade extending along a longitudinal axis and connected to said neck to form a blade plane; a plurality of bores located in said blade, each of said bores having a central axis; characterized in that said axes are oriented so that none project at the same angle relative to said blade plane. a neck; and a blade extending along a longitudinal axis and connected to said neck to form a blade plane; a plurality of bores located in said blade, each of said bores having a central axis; characterized in that said axes are oriented so that none project at the same angle relative to said blade plane.
An aqueous resin composition, comprising: a composite resin; and an aqueous medium, wherein the composite resin contains a vinyl polymer and a urethane resin, the vinyl polymer contains a unit derived from a conjugated diene compound, the composite resin has a group reactive with a -SH group, the urethane resin has a content of 1 part by mass or more and 100 parts by mass or less relative to 1 part by mass of the vinyl polymer, the total content of the vinyl polymer and the urethane resin in the composite resin is 70% by mass or more and the upper limit is 100% by mass, and the content of the composite resin in the aqueous resin composition is 20% by mass or more and is 60% by mass or less. a composite resin; and an aqueous medium, wherein the composite resin contains a vinyl polymer and a urethane resin, the vinyl polymer contains a unit derived from a conjugated diene compound, the composite resin has a group reactive with a -SH group, the urethane resin has a content of 1 part by mass or more and 100 parts by mass or less relative to 1 part by mass of the vinyl polymer, the total content of the vinyl polymer and the urethane resin in the composite resin is 70% by mass or more and the upper limit is 100% by mass, and the content of the composite resin in the aqueous resin composition is 20% by mass or more and is 60% by mass or less.
A spray booth module comprising: a spraying section where a sprayed fluid is directed toward an object to be sprayed; a capturing section disposed below the spraying section and communicating with the spraying section and including at least one wet scrubber (10;222) for capturing overspray of the sprayed fluid; and at least one under section, the under section being a portion of the capturing section and having the at least one wet scrubber (10;222) provided therein, the wet scrubber (10;222) being located beneath an area where overspray is generated; wherein the at least one under section includes side walls, a sloped floor, and a sluice, wherein the side walls and sloped floor define and operate as a plenum for directing air to an exhaust fan assembly; and wherein the sloped floor is positioned below and adjacent an exhaust of the at least one wet scrubber (10;222), the sloped floor directing water from the exhaust toward the sluice; and wherein the at least one under section comprises two under sections and each of the two under sections includes a plurality of wet scrubbers (10;222), wherein the plurality of wet scrubbers (10;222) are positioned laterally symmetrical on opposing sides of the spray booth module, and wherein each of the wet scrubbers (10;222) includes an inlet (14;224), the inlet (14;224) being positioned beneath the area where overspray is generated, located laterally outward of the object to be sprayed. a spraying section where a sprayed fluid is directed toward an object to be sprayed; a capturing section disposed below the spraying section and communicating with the spraying section and including at least one wet scrubber (10;222) for capturing overspray of the sprayed fluid; and at least one under section, the under section being a portion of the capturing section and having the at least one wet scrubber (10;222) provided therein, the wet scrubber (10;222) being located beneath an area where overspray is generated; wherein the at least one under section includes side walls, a sloped floor, and a sluice, wherein the side walls and sloped floor define and operate as a plenum for directing air to an exhaust fan assembly; and wherein the sloped floor is positioned below and adjacent an exhaust of the at least one wet scrubber (10;222), the sloped floor directing water from the exhaust toward the sluice; and wherein the at least one under section comprises two under sections and each of the two under sections includes a plurality of wet scrubbers (10;222), wherein the plurality of wet scrubbers (10;222) are positioned laterally symmetrical on opposing sides of the spray booth module, and wherein each of the wet scrubbers (10;222) includes an inlet (14;224), the inlet (14;224) being positioned beneath the area where overspray is generated, located laterally outward of the object to be sprayed.