mhurhangee/ep-ind-claims huggingface dataset:
Two-lane vehicle having a chassis suspension, having a front axle subframe which is attached to lateral body side members, and having a tunnel cross member functioning as a drive unit bearing component, said tunnel cross member being spaced apart from the subframe by a longitudinal displacement (Δx) in a vehicle longitudinal direction (x) and bridging a body-side central tunnel, wherein a drive unit is supported via bearing positions both on the subframe and on the tunnel cross member, characterised in that an intermediate coupling element is provided which connects the subframe to the tunnel cross member in a force-transmitting manner by bridging of the longitudinal displacement (Δx).
A tray destacker comprising destacking screws (5a, 5b) for singulating and destacking trays of a tray stack, each destacking screw (5a, 5b) comprising a helix configured as a helical recess, wherein two destacking screws (5a, 5b), which have an identical direction of rotation and an identical direction of windings, are associated with a common tray stack, wherein the helixes of both destacking screws (5a, 5b) have a contact height corresponding, at least substantially, to a flange height of the tray flange, and wherein the contact height of the helixes is configured such that the tray flange of the tray is guidable between a respective outer edge (16, 17) of the upper side and of the lower side of the helixes, characterized in that the destacking screws (5a, 5b) are configured for guiding a respective side of the tray flange with a respective contact point (22a, 22b) with the outer edge (16, 17) of the upper side of their helixes and a further contact point (21a, 21b) with the lower side of their helixes.
A method for forming a nickel-chromium-aluminum (Ni-Cr-Al) composite on a turbine component, the method comprising: providing a turbine component which has lost materials during repair processes; providing a first plating bath filled with a solution including a solvent, a surfactant, and an ionic liquid including choline chloride, nickel chloride, and chromium chloride, wherein a molar ratio of the choline chloride to chromium chloride ranges from 0.5 to 3.5, and the solvent comprises from 5 to 80 vol.% relative to a mixture of the choline chloride and metal chlorides including the nickel and chromium chlorides; electrodepositing a Ni-Cr alloy on the turbine component coupled to a cathode by providing an external supply of current to the cathode and an anode in the first plating bath; providing a second plating bath filled with an ionic liquid including Lewis acidic 1-ethyl-3-methylimidazolium chloride or 1-butyl-3-methylimidazolium chloride and an aluminum salt; electrodepositing an aluminum (Al) onto the Ni-Cr alloy in the second plating bath; and heat-treating the electrodeposited Ni-Cr-Al composite layer at a high temperature to form a diffused Ni-Cr-Al alloy such that an aluminum compound is formed between aluminum and nickel and to restore materials lost during the repair processes of the turbine component. providing a turbine component which has lost materials during repair processes; providing a first plating bath filled with a solution including a solvent, a surfactant, and an ionic liquid including choline chloride, nickel chloride, and chromium chloride, wherein a molar ratio of the choline chloride to chromium chloride ranges from 0.5 to 3.5, and the solvent comprises from 5 to 80 vol.% relative to a mixture of the choline chloride and metal chlorides including the nickel and chromium chlorides; electrodepositing a Ni-Cr alloy on the turbine component coupled to a cathode by providing an external supply of current to the cathode and an anode in the first plating bath; providing a second plating bath filled with an ionic liquid including Lewis acidic 1-ethyl-3-methylimidazolium chloride or 1-butyl-3-methylimidazolium chloride and an aluminum salt; electrodepositing an aluminum (Al) onto the Ni-Cr alloy in the second plating bath; and heat-treating the electrodeposited Ni-Cr-Al composite layer at a high temperature to form a diffused Ni-Cr-Al alloy such that an aluminum compound is formed between aluminum and nickel and to restore materials lost during the repair processes of the turbine component.
A gel-wipe suitable for personal care and household cleansing applications, said gel-wipe comprising: a substrate comprising fibers, said fibers comprising an outer surface and an inner core, said substrate comprising a first surface, a second surface opposing said first surface, and a body disposed between and defined by said first and second surfaces, said substrate comprising a polymeric gel distributed throughout said substrate and throughout said inner core of a substantial portion of said fibers, wherein substantial portion of said fibers means at least 95 weight percent, based on the total weight of fiber content in the substrate; and a liquid cleansing composition applied to said substrate in an amount effective to provide improved cleansing efficacy to said gel-wipe, wherein said inner core of said substantial portion of said fibers are free of said liquid cleansing composition, and wherein the gel-wipe comprises from 2 percent to 50 percent of said liquid cleansing composition. a substrate comprising fibers, said fibers comprising an outer surface and an inner core, said substrate comprising a first surface, a second surface opposing said first surface, and a body disposed between and defined by said first and second surfaces, said substrate comprising a polymeric gel distributed throughout said substrate and throughout said inner core of a substantial portion of said fibers, wherein substantial portion of said fibers means at least 95 weight percent, based on the total weight of fiber content in the substrate; and a liquid cleansing composition applied to said substrate in an amount effective to provide improved cleansing efficacy to said gel-wipe, wherein said inner core of said substantial portion of said fibers are free of said liquid cleansing composition, and wherein the gel-wipe comprises from 2 percent to 50 percent of said liquid cleansing composition.
An operation method of an electric stapler, the method comprising: a paper bundle pinching step of relatively moving a table part and a driver unit and also pinching a paper bundle by the table part and the driver unit; a staple separation step of folding a staple located at a forming position of staples in a staple sheet into U-shape by a forming plate provided in the driver unit and also separating the folded U-shape staple from the staple sheet by moving a driver provided in the driver unit; a penetration step of penetrating legs of the staple into the paper bundle by further moving the driver; a clinch step of inward folding the legs penetrating through the paper bundle by a clinch device; and a paper bundle releasing step of releasing the paper bundle by relatively moving the table part and the driver unit in a direction of moving away from each other, wherein a relative movement of the table part and the driver unit, the forming plate, the driver, and the clinch device are powered by a single motor, characterised in that a driving speed of the motor in the steps excluding the penetration step and the clinch step is slower than the driving speed of the motor in the penetration step and the clinch step. a paper bundle pinching step of relatively moving a table part and a driver unit and also pinching a paper bundle by the table part and the driver unit; a staple separation step of folding a staple located at a forming position of staples in a staple sheet into U-shape by a forming plate provided in the driver unit and also separating the folded U-shape staple from the staple sheet by moving a driver provided in the driver unit; a penetration step of penetrating legs of the staple into the paper bundle by further moving the driver; a clinch step of inward folding the legs penetrating through the paper bundle by a clinch device; and a paper bundle releasing step of releasing the paper bundle by relatively moving the table part and the driver unit in a direction of moving away from each other, wherein a relative movement of the table part and the driver unit, the forming plate, the driver, and the clinch device are powered by a single motor, characterised in that a driving speed of the motor in the steps excluding the penetration step and the clinch step is slower than the driving speed of the motor in the penetration step and the clinch step.
A laser cataract surgery control system comprising: a laser source; a controller comprising one or more physical processors; a fragmentation module configured to use the one or more physical processors to determine a laser lens fragmentation treatment plan by determining: a first region of a lens of a patient's eye to receive a laser beam having a first numerical aperture; and a second region of the lens of the patient's eye to receive a laser beam having a second numerical aperture, the second numerical aperture being lower than the first numerical aperture, and the second region being radially closer, on average, to an iris of the patient's eye than the first region; a laser control module in communication with the laser source and configured to: control the laser source to deliver the laser beam having the first numerical aperture and a first energy to the first region of the lens; and control the laser source to deliver the laser beam having the second numerical aperture and a second energy to the second region of the lens, wherein the first numerical aperture and the first energy are configured to deliver a first peak laser energy to a retina of the patient's eye that is less than or equal to a safety threshold. a laser source; a controller comprising one or more physical processors; a fragmentation module configured to use the one or more physical processors to determine a laser lens fragmentation treatment plan by determining: a first region of a lens of a patient's eye to receive a laser beam having a first numerical aperture; and a second region of the lens of the patient's eye to receive a laser beam having a second numerical aperture, the second numerical aperture being lower than the first numerical aperture, and the second region being radially closer, on average, to an iris of the patient's eye than the first region; a first region of a lens of a patient's eye to receive a laser beam having a first numerical aperture; and a second region of the lens of the patient's eye to receive a laser beam having a second numerical aperture, the second numerical aperture being lower than the first numerical aperture, and the second region being radially closer, on average, to an iris of the patient's eye than the first region; a laser control module in communication with the laser source and configured to: control the laser source to deliver the laser beam having the first numerical aperture and a first energy to the first region of the lens; and control the laser source to deliver the laser beam having the second numerical aperture and a second energy to the second region of the lens, control the laser source to deliver the laser beam having the first numerical aperture and a first energy to the first region of the lens; and control the laser source to deliver the laser beam having the second numerical aperture and a second energy to the second region of the lens, wherein the first numerical aperture and the first energy are configured to deliver a first peak laser energy to a retina of the patient's eye that is less than or equal to a safety threshold.
A clock display mechanism including at least one roller (10, 11, 12, 13, 14) pivoting around a roller axis, said roller (10, 11, 12, 13, 14) including at least one flap pivoting around a flap axis parallel to said roller axis and distinct from said roller axis, said at least one flap including at least a first face and at least a second face, said display mechanism including first drive means for pivoting said roller (10, 11, 12, 13, 14) around said roller axis, where said display mechanism includes second drive means distinct from said first drive means for pivoting at least one said flap around its said flap axis, in at least one determined position of said flap axis relative to said roller axis, where said first drive means include a control wheel (3120, 3130) of which certain teeth are removed, and which meshes with a roller drive pinion (312, 313), either directly or via a reduction torque, to obtain the desired reduction, a constant rotation of said flaps as a function of said roller (10, 11, 12, 13, 14) being calculated so that, at the display position visible to the user, the indication of said flap is rotated by 180° per revolution of said roller (10, 11, 12, 13, 14), characterised in that said second drive means are arranged to pivot synchronously, at the same time, each said flap included in a said roller (10, 11, 12, 13, 14).
A method for manufacturing a timepiece component, the method comprising the steps of: - manufacturing of a master for the timepiece component; - manufacturing of a polymer mould based on the master piece; - filling the mould with a metallic material such as to build up the timepiece component with the material; and - separating the timepiece component from the mould; wherein, during the step of manufacturing the mould, a fluid resin is applied onto the master, and characterised in that during the step of manufacturing the mould, the master is placed on a fixed support, and after the fluid resin has been applied on to the master, the resin is pressed onto the master by means of a press. - manufacturing of a master for the timepiece component; - manufacturing of a polymer mould based on the master piece; - filling the mould with a metallic material such as to build up the timepiece component with the material; and - separating the timepiece component from the mould;
A hybrid polypeptide comprising a first amino acid sequence comprising at least one catalytic module having alpha-amylase activity and a second amino acid sequence comprising at least one carbohydrate-binding module, wherein said first amino acid sequence has at least 75%, at least 80%, at least 85%, at least 90% or even at least 95% identity to the Rhizomucor pusillus alpha-amylase catalytic domain in SEQ ID NO: 20, and wherein said second amino acid sequence is a CBM having at least 75% identity to a CBM selected from the group consisting of the Aspergillus niger glucoamylase CBM in SEQ ID NO: 96, the Aspergillus kawachii glucoamylase CBM in SEQ ID NO: 94, or the A. rolfsii glucoamylase CBM in SEQ ID NO: 92.
A ball comprising a core, the core comprising a substantially impermeable outer surface, the ball comprising a porous structure encompassing the core, the porous structure being delimited by an outer surface and an inner surface, the outer surface of the porous structure comprising a plurality of perforations, the porous structure comprising a plurality of hollow confined spaces (8, 11), with at least a part of the plurality of porous structure perforations and at least a part of the plurality of hollow confined spaces being interconnected, the ball further comprising a shell encompassing the porous structure, the shell being delimited by a shell outer surface and a shell inner surface, the shell comprising a plurality of shell perforations with at least a part of the plurality of shell perforations extending between a shell outer opening in the shell outer surface and a shell inner opening in the shell inner surface, and with at least part of the plurality of shell perforations being interconnected with the porous structure perforations, the interconnected plurality of shell perforations, porous structure perforations and hollow confined spaces defining a plurality of liquid passages allowing a liquid to be absorbed by the hollow confined spaces upon contact of the ball with the liquid, the ball being characterized in that the ball comprises control means for controlling absorption of the liquid by the ball and/or for controlling release of the absorbed liquid from the ball, wherein said control means at least comprises a shell channel provided between the shell outer and inner opening interconnecting the shell perforations and the porous structure perforations.
A product comprising: an electrified turbocharger comprising: an electric motor surrounding a portion of a shaft constructed and arranged to selectively drive the shaft, wherein the electric motor further comprises a stator comprising a lamination stack; a housing (54, 56) surrounding the electric motor, wherein the housing (54, 56) includes a plurality of channels (76, 78, 80, 82, 88, 92, 98, 100) constructed and arranged to lubricate a first bearing; and characterized in that the lamination stack is constructed and arranged to include at least one conduit (84, 94; 108, 110) to pass oil through the electric motor to a second bearing. an electric motor surrounding a portion of a shaft constructed and arranged to selectively drive the shaft, wherein the electric motor further comprises a stator comprising a lamination stack; a housing (54, 56) surrounding the electric motor, wherein the housing (54, 56) includes a plurality of channels (76, 78, 80, 82, 88, 92, 98, 100) constructed and arranged to lubricate a first bearing; and characterized in that the lamination stack is constructed and arranged to include at least one conduit (84, 94; 108, 110) to pass oil through the electric motor to a second bearing.
A method for polymerizing one or more ethylene-based polymers comprising the steps of: selecting ethylene and optionally one or more alpha-olefin comonomers; selecting one or more catalyst systems comprising one or more Ziegler-Natta procatalysts comprising Ti, one or more cocatalysts comprising Al, and a self-limiting agent wherein the self-limiting agent is comprised of a C 1 -C 20 alkyl ester of a C 4 -C 30 aliphatic acid wherein the C 4 -C 30 aliphatic acid ester is selected from a laurate, a myristate, a palmitate, a stearate, an oleate, and mixtures thereof; wherein the ratio of SLA to Ti (SLA:Ti) is from 5:1 to 40:1 and the ratio of Al to SLA (Al:SLA) is from 5:1 to 40:1; polymerizing said ethylene and optionally one or more alpha-olefin comonomers in the presence of said one or more catalyst systems via a slurry polymerization process or gas-phase polymerization process in one or more reactors; thereby producing one or more ethylene-based polymers; wherein said catalyst system has a loss of least 85 percent of catalyst productivity when the temperature is increased from 85 to 115° C. selecting ethylene and optionally one or more alpha-olefin comonomers; selecting one or more catalyst systems comprising one or more Ziegler-Natta procatalysts comprising Ti, one or more cocatalysts comprising Al, and a self-limiting agent wherein the self-limiting agent is comprised of a C 1 -C 20 alkyl ester of a C 4 -C 30 aliphatic acid wherein the C 4 -C 30 aliphatic acid ester is selected from a laurate, a myristate, a palmitate, a stearate, an oleate, and mixtures thereof; wherein the ratio of SLA to Ti (SLA:Ti) is from 5:1 to 40:1 and the ratio of Al to SLA (Al:SLA) is from 5:1 to 40:1; polymerizing said ethylene and optionally one or more alpha-olefin comonomers in the presence of said one or more catalyst systems via a slurry polymerization process or gas-phase polymerization process in one or more reactors; thereby producing one or more ethylene-based polymers; wherein said catalyst system has a loss of least 85 percent of catalyst productivity when the temperature is increased from 85 to 115° C.
Method of providing a coating to a metal substrate, comprising at least the subsequent steps of applying a passivating layer to the surface of the metal substrate, applying a lubricating layer to the passivating layer on the metal substrate and applying a dyeing layer to the lubricating layer, wherein the passivating step comprises applying a metal oxide layer not based on chromium, a metal phosphate layer, a metal silicate layer or metal titanate layer on the surface of the metal substrate and the lubricating step comprises chemically bonding a lubricating compound to the passivating layer, the lubricating compound having a hydrophobic nature.
A process for operating an off-gas incinerator, the process comprising: introducing a flow of a reactant stream comprising hydrocarbon, ammonia and air into an ammoxidation reactor, wherein the hydrocarbon in the reactant stream is selected from the group consisting of propane, propylene, isobutene, isobutylene and mixtures thereof; determining an amount of hydrocarbon in the reactant stream and determining a feed rate of the reactant stream; conveying a gaseous reactor effluent comprising acrylonitrile from the ammoxidation reactor to an absorber wherein acrylonitrile is absorbed in an absorber aqueous stream; supplying an absorber off-gas from the absorber to an absorber off-gas incinerator; and supplying fuel gas and air to the absorber off-gas incinerator; wherein feedforward variables are used to adjust a set of manipulated variables to thereby control at least one set of controlled variables, wherein the feedforward variables include the amount of hydrocarbon in the reactant stream and the feed rate of the reactant stream, the set of manipulated variables includes fuel gas flow to the absorber off-gas incinerator and the air flow to the absorber off-gas incinerator, and the set of controlled variables includes an amount of oxygen in the absorber off-gas incinerator stack gas and a temperature in the absorber off-gas incinerator. introducing a flow of a reactant stream comprising hydrocarbon, ammonia and air into an ammoxidation reactor, wherein the hydrocarbon in the reactant stream is selected from the group consisting of propane, propylene, isobutene, isobutylene and mixtures thereof; determining an amount of hydrocarbon in the reactant stream and determining a feed rate of the reactant stream; conveying a gaseous reactor effluent comprising acrylonitrile from the ammoxidation reactor to an absorber wherein acrylonitrile is absorbed in an absorber aqueous stream; supplying an absorber off-gas from the absorber to an absorber off-gas incinerator; and supplying fuel gas and air to the absorber off-gas incinerator; wherein feedforward variables are used to adjust a set of manipulated variables to thereby control at least one set of controlled variables, wherein the feedforward variables include the amount of hydrocarbon in the reactant stream and the feed rate of the reactant stream, the set of manipulated variables includes fuel gas flow to the absorber off-gas incinerator and the air flow to the absorber off-gas incinerator, and the set of controlled variables includes an amount of oxygen in the absorber off-gas incinerator stack gas and a temperature in the absorber off-gas incinerator.