mhurhangee/patent-ind-claim-en huggingface dataset:
A stress monitoring system comprising: a vibrator screen unit having first and second opposed sidewall plates with at least one screen deck transversely mounted therebetween, and: at least one motion sensor disposed at corresponding monitoring points on each of said first and second plates ; said motion sensors being connected to a processor such that simultaneous monitoring data of said monitoring points is provided to said processor for comparing real-time movement of the corresponding monitoring points of said opposed plates. a vibrator screen unit having first and second opposed sidewall plates with at least one screen deck transversely mounted therebetween, and: at least one motion sensor disposed at corresponding monitoring points on each of said first and second plates ; said motion sensors being connected to a processor such that simultaneous monitoring data of said monitoring points is provided to said processor for comparing real-time movement of the corresponding monitoring points of said opposed plates.
Acetabular cup of a hip joint endoprosthesis, comprising an outer cup section with a convex surface for contacting the acetabulum and an inner cup section with a concave surface for contacting an inlay of the hip joint endoprosthesis, wherein at least along a surface portion of the acetabular cup the outer cup section is made resilient relative to the inner cup section in a radial direction (r), characterized in that the spring elasticity is formed by a wall portion of the outer cup section extending to a wall portion of the inner cup section forming a cavity with radial clearance (a), wherein the resiliently configured wall portion extends around the entire circumference of the acetabular cup and is free of resilient elements, wherein the resiliently configured wall portion is limited to a height (h) which is at most 60 %, preferably at most 50 %, of the total height (H) of the acetabular cup , and wherein the acetabular cup together with the wall portions is formed in one piece. the spring elasticity is formed by a wall portion of the outer cup section extending to a wall portion of the inner cup section forming a cavity with radial clearance (a), wherein the resiliently configured wall portion extends around the entire circumference of the acetabular cup and is free of resilient elements, wherein the resiliently configured wall portion is limited to a height (h) which is at most 60 %, preferably at most 50 %, of the total height (H) of the acetabular cup , and wherein the acetabular cup together with the wall portions is formed in one piece.
Communication cable comprising a dielectric insulation material layer based on expanded and/or foamed and/or having a honeycomb structure high temperature siloxane copolymer characterized in that the high temperature siloxane copolymer is a polyetherimide-siloxane and in that the air space or gas space content of the expanded and/or foamed and/or having a honeycomb structure high temperature siloxane copolymer is ≥ 10 Vol. % based on the total volume of said copolymer.
An electrochemical oxygen sensor comprising: a positive electrode ; a negative electrode comprising tin or a tin alloy; and an aqueous electrolyte solution characterized by the aqueous electrolyte solution comprising at least one selected from the group consisting of citric acids, wherein the aqueous electrolyte solution contains an alkali metal, wherein a total content of the citric acids in the aqueous electrolyte solution is 2.1 mol/L or higher, wherein a content (in mol/L) of the alkali metal in the aqueous electrolyte solution is 0.1 to 1.6 times the total content (in mol/L) of the citric acids, wherein the aqueous electrolyte solution has a pH of 3.9 to 4.6, and wherein the ratio of the volume of the aqueous electrolyte solution , x (ml), to a content of tin contained in the negative electrode , y (g), (x/y) is 0.3 (ml/g) or more. a positive electrode ; a negative electrode comprising tin or a tin alloy; and an aqueous electrolyte solution characterized by the aqueous electrolyte solution comprising at least one selected from the group consisting of citric acids, wherein the aqueous electrolyte solution contains an alkali metal, wherein a total content of the citric acids in the aqueous electrolyte solution is 2.1 mol/L or higher, wherein a content (in mol/L) of the alkali metal in the aqueous electrolyte solution is 0.1 to 1.6 times the total content (in mol/L) of the citric acids, wherein the aqueous electrolyte solution has a pH of 3.9 to 4.6, and wherein the ratio of the volume of the aqueous electrolyte solution , x (ml), to a content of tin contained in the negative electrode , y (g), (x/y) is 0.3 (ml/g) or more.
A laminating device for laminating a stack consisting of a plurality of substrate layers to form a composite body, in particular a document body, said device having a main body on which at least one movable punch is provided and at least one lamination plate which is disposed between said stack and said at least one movable punch , and a press table on which the stack is disposable in a lamination position for creating said composite body, characterised in that - the stack is fixable disposed in a lamination position with respect to the press table by means of a holding-down device and - a heating device and a cooling device is successively positionable with respect to the holding-down device while the latter is fixedly disposed in the lamination position. - the stack is fixable disposed in a lamination position with respect to the press table by means of a holding-down device and - a heating device and a cooling device is successively positionable with respect to the holding-down device while the latter is fixedly disposed in the lamination position.
Spindle arrangement for a spinning or twisting machine, in particular a ring spinning machine , having a plurality of spindles arranged next to one another and driven by means of a tangential belt , comprising a spindle rail having holes for securing the spindles , a first spindle , a second spindle arranged next to the first spindle , a first spring-mounted nip roller , which is arranged between the first spindle and the second spindle and pushes the tangential belt against the wharves of the first spindle and the second spindle , and a third spindle arranged next to the second spindle , the centres of the holes of the first spindle and the second spindle being located on a spindle straight line , the centre of the hole of the third spindle being spaced apart from the spindle straight line , and the centre of the hole of the third spindle and the first nip roller being positioned on the same side of the spindle straight line , characterised in that the distance from the centre of the hole of the third spindle to the spindle straight line is greater than 0.5 mm, and in that the distance from the centre of the hole of the third spindle to the spindle straight line is less than 2 mm.
Mobile work machine , in particular wheel loader, with a vehicle structure , a telescopic arm arranged on the vehicle structure , a lifting cylinder for lifting and lowering the telescopic arm , a telescopic cylinder for retracting and extending the telescopic arm , a load moment system with sensor technology for determining a load moment signal (LM), a speed sensor for determining the driving speed (v) of the work machine , and an operating element for producing an operating element signal (BE), based on which an actuating element signal (BS) is produced, which is used to control the cylinder or cylinders , wherein a controller is provided, which is designed to reduce or interrupt the actuating element signal (BS) at least in areas as a function of a load moment signal (LM), characterised in that the controller is further designed to damp the load moment signal (LM) as a function of at least one parameter of the work machine and to reduce or interrupt the actuating element signal (BS) as a function of the damped load moment signal (LMfilt), wherein the at least one parameter of the work machine comprises the driving speed (v) of the work machine . a vehicle structure , a telescopic arm arranged on the vehicle structure , a lifting cylinder for lifting and lowering the telescopic arm , a telescopic cylinder for retracting and extending the telescopic arm , a load moment system with sensor technology for determining a load moment signal (LM), a speed sensor for determining the driving speed (v) of the work machine , and an operating element for producing an operating element signal (BE), based on which an actuating element signal (BS) is produced, which is used to control the cylinder or cylinders , wherein a controller is provided, which is designed to reduce or interrupt the actuating element signal (BS) at least in areas as a function of a load moment signal (LM), characterised in that the controller is further designed to damp the load moment signal (LM) as a function of at least one parameter of the work machine and to reduce or interrupt the actuating element signal (BS) as a function of the damped load moment signal (LMfilt), wherein the at least one parameter of the work machine comprises the driving speed (v) of the work machine .
A tool for dry mixing and coating of powder mixtures comprising a fixing shaft and an approximately disc-shaped element fixed thereto and of a diameter d, having an upper surface, a lower surface and a peripheral surface connecting the upper and lower surfaces, wherein the disc-shaped element has a plurality of grooves extending parallel to the shaft axis, wherein each groove has two groove walls extending from the peripheral surface to a groove bottom , wherein a tooth is formed between two grooves, wherein the disc-shaped element has a base portion and at least one wear element fixed to the base portion, wherein the lower surface has at least one whirling-up element which projects beyond the lower surface, wherein the whirling-up element is arranged closer to the fixing shaft than to the groove bottom , characterised in that at least one portion of each groove wall , that adjoins the peripheral surface, is formed by the wear element .
A composite cable assembly comprising a fluid tube , an electric cable , an isolating sleeve accommodating said fluid tube and electric cable, and a composite connector arrangement , said composite connector arrangement configured to simultaneously establish fluid communication and electrical connection with respective connectivity means of a water dispensing unit upon connection of the composite connector arrangement to said water dispensing unit, and characterized by that the composite cable assembly comprises a movable carrier and an elastic element mounted inside the composite connector arrangement, said movable carrier configured to carry an electric coupler and move inside said composite connector arrangement against forces applied by said elastic element, to thereby provide a degree of freedom for movements of said composite connector arrangement while maintaining electrical connection of said electric coupler.
A method of making a potato chip food product comprising, a) providing a plurality of cut or shaped potato pieces that have been rinsed in water; b) exposing the pieces to a solution comprising about 0.1-5 wt-% of one or more of amylase, cellulase, invertase, pectinase and amyloglucosidase for a time of about 0.5 to about 5 minutes; c) thereafter blanching the pieces in an aqueous solution for a time sufficient to inactivate the enzymes and reduce free sugar; d) reducing the moisture level of the pieces to an intermediate moisture level of 10 - 80 % by cooking the pieces in bulk in at least one oven or drier at a first oven or drier temperature of about 275-400 °F (135-204 °C) for a first time period of about 0.5-40 min.; e) cooking a bulk quantity of the reduced moisture pieces of step (d) in the one or more driers or ovens at an oven or drier temperature of about 275-350 °F (135-176 °C) for a second time period of 4-35 min, and wherein the second temperature is lower than the first temperature, and wherein steps d) and e) are conducted without frying the pieces in oil, to yield a potato chip food product having a moisture level of 0.5 to 10 wt-%; and f) optionally adding a predetermined amount of digestible and/or synthetic oil or fat to the potato chip food pieces and/or to the potato chip food product to yield a potato chip food product containing up to about 35 wt-% fat. a) providing a plurality of cut or shaped potato pieces that have been rinsed in water; b) exposing the pieces to a solution comprising about 0.1-5 wt-% of one or more of amylase, cellulase, invertase, pectinase and amyloglucosidase for a time of about 0.5 to about 5 minutes; c) thereafter blanching the pieces in an aqueous solution for a time sufficient to inactivate the enzymes and reduce free sugar; d) reducing the moisture level of the pieces to an intermediate moisture level of 10 - 80 % by cooking the pieces in bulk in at least one oven or drier at a first oven or drier temperature of about 275-400 °F (135-204 °C) for a first time period of about 0.5-40 min.; e) cooking a bulk quantity of the reduced moisture pieces of step (d) in the one or more driers or ovens at an oven or drier temperature of about 275-350 °F (135-176 °C) for a second time period of 4-35 min, and wherein the second temperature is lower than the first temperature, and wherein steps d) and e) are conducted without frying the pieces in oil, to yield a potato chip food product having a moisture level of 0.5 to 10 wt-%; and f) optionally adding a predetermined amount of digestible and/or synthetic oil or fat to the potato chip food pieces and/or to the potato chip food product to yield a potato chip food product containing up to about 35 wt-% fat.
A microbiological process for the preparation of amides of formula R(R')(R")C-CONH 2 (I) comprising the reaction of a nitrile of formula R(R')(R")C-CN (II) with the nitrile hydratase enzyme produced by the bacterial strain Rhodococcus biphenylivorans named "Palladio 22" deposited in the Collection of Microorganisms BCCM-LMG with deposit number LMG P-29520, wherein at least one of R, R' and R" is different from hydrogen; R, R' and R", the same or different each other, are independently selected among hydrogen, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, C 1 -C 6 alkoxycarbonyl, C 2 -C 6 alkenyl, C 3 -C 6 cycloalkyl optionally containing a =O group, R′′′CO-, heterocycle with 3 to 6 atoms of which at least one is N or O, arylsulfonyl, C 1 -C 6 alkylsulfonyl, aryl, arylaminocarbonyl and C 1 -C 6 alkylaminocarbonyl; R′′′ is C 1 -C 6 alkyl, aryl, amino, hydrazino; each R, R', R" and R′′′, when different from hydrogen, being optionally substituted by one or more substituents selected among halogen, nitrile, amino, C 1 -C 6 alkylamino, hydroxy, C 1 -C 6 alkoxy, aryl groups; provided that the compound of formula I is not acrylamide. at least one of R, R' and R" is different from hydrogen; R, R' and R", the same or different each other, are independently selected among hydrogen, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, C 1 -C 6 alkoxycarbonyl, C 2 -C 6 alkenyl, C 3 -C 6 cycloalkyl optionally containing a =O group, R′′′CO-, heterocycle with 3 to 6 atoms of which at least one is N or O, arylsulfonyl, C 1 -C 6 alkylsulfonyl, aryl, arylaminocarbonyl and C 1 -C 6 alkylaminocarbonyl; R′′′ is C 1 -C 6 alkyl, aryl, amino, hydrazino; each R, R', R" and R′′′, when different from hydrogen, being optionally substituted by one or more substituents selected among halogen, nitrile, amino, C 1 -C 6 alkylamino, hydroxy, C 1 -C 6 alkoxy, aryl groups; provided that the compound of formula I is not acrylamide.
A method of managing hydrocarbons for a subsurface region, comprising: obtaining a training set of geologically plausible models for the subsurface region; obtaining geophysical data and/or reservoir surveillance data of the subsurface region, training an autoencoder with the training set; extracting a decoder from the trained autoencoder, wherein the decoder comprises a geologic-model-generating function; using the decoder within an objective function to replace output-space variables of the decoder with latent-space variables, wherein a dimensionality of the output-space variables is greater than a dimensionality of the latent-space variables; performing an inversion by identifying one or more minima of the objective function to generate a set of prospective latent-space models for the subsurface region; wherein the inversion is based on at least one of the geophysical data and/or the reservoir surveillance data; using the decoder to convert each of the prospective latent-space models to a respective output-space model; identifying one or more geologic axes for parameters of the geologically plausible models; identifying prospective latent-space models relating to maxima and minima along the geologic axes; estimating an uncertainty in the set of prospective latent-space models based on the maxima and minima along the geologic axes; and estimating an uncertainty in the set of output-space models based on the uncertainty in the set of prospective latent-space models making one or more hydrocarbon management decision based on the estimated uncertainty in the set of output -space models. obtaining a training set of geologically plausible models for the subsurface region; obtaining geophysical data and/or reservoir surveillance data of the subsurface region, training an autoencoder with the training set; extracting a decoder from the trained autoencoder, wherein the decoder comprises a geologic-model-generating function; using the decoder within an objective function to replace output-space variables of the decoder with latent-space variables, wherein a dimensionality of the output-space variables is greater than a dimensionality of the latent-space variables; performing an inversion by identifying one or more minima of the objective function to generate a set of prospective latent-space models for the subsurface region; wherein the inversion is based on at least one of the geophysical data and/or the reservoir surveillance data; using the decoder to convert each of the prospective latent-space models to a respective output-space model; identifying one or more geologic axes for parameters of the geologically plausible models; identifying prospective latent-space models relating to maxima and minima along the geologic axes; estimating an uncertainty in the set of prospective latent-space models based on the maxima and minima along the geologic axes; and estimating an uncertainty in the set of output-space models based on the uncertainty in the set of prospective latent-space models making one or more hydrocarbon management decision based on the estimated uncertainty in the set of output -space models.
An adhesive composition comprising: (a) one or more epoxy resins; (b) a liquid rubber; (c) a core-shell rubber in the form of secondary particles in which two or more core-shell rubbers in the form of primary particles are aggregated; and (d) one or more epoxy curing agents; wherein the liquid rubber (b) is an epoxy terminated liquid rubber, which is a reactant of an epoxy resin with a diene-based polymer having epoxy reactive end groups; wherein the core-shell rubber in the form of primary particles have an average particle diameter of 250 nm or more, and the upper limit thereof is 600 nm or less, the average particle diameter is measured according to the method of the description, the 'average particle diameter" means the diameter that the particle with 50% of the cumulative weight in the particle size distribution curve; and wherein the core-shell rubber in the form of primary particles has a ratio of the core particle diameter to the total particle diameter of the core-shell satisfying 0.8 to 0.99; and wherein the weight ratio of the primary particles is 1 wt% or less relative to the total content of the core-shell rubbers. (a) one or more epoxy resins; (b) a liquid rubber; (c) a core-shell rubber in the form of secondary particles in which two or more core-shell rubbers in the form of primary particles are aggregated; and (d) one or more epoxy curing agents; wherein the liquid rubber (b) is an epoxy terminated liquid rubber, which is a reactant of an epoxy resin with a diene-based polymer having epoxy reactive end groups; wherein the core-shell rubber in the form of primary particles have an average particle diameter of 250 nm or more, and the upper limit thereof is 600 nm or less, the average particle diameter is measured according to the method of the description, the 'average particle diameter" means the diameter that the particle with 50% of the cumulative weight in the particle size distribution curve; and wherein the core-shell rubber in the form of primary particles has a ratio of the core particle diameter to the total particle diameter of the core-shell satisfying 0.8 to 0.99; and wherein the weight ratio of the primary particles is 1 wt% or less relative to the total content of the core-shell rubbers.
Tyre assembly system for winding tyre components , wherein the tyre assembly system has a tyre assembly drum that can be driven and a feeder having at least one feeder tray for picking up and conveying a tyre component in a feed direction (R) to the tyre assembly drum , wherein the tyre assembly drum can be rotated about an axis of rotation to wind up the tyre component supplied, wherein the tyre assembly system also has a sensor device with a detection region (E) aimed at the feeder tray for determining a geometry of a tyre component laid on the feeder tray and/or for determining an alignment of a tyre component laid on the feeder tray , wherein the tyre assembly drum is coupled to an actuator in such a way that the axis of rotation of the tyre assembly drum can be adjusted by controlling the actuator , wherein, depending on the determined geometry and/or the determined alignment of the tyre component laid on the feeder tray , the actuator can be controlled in such a way that, depending on the determined geometry and/or the determined alignment of the tyre component laid on the feeder tray , the axis of rotation of the tyre assembly drum is also adjusted relative to a tyre component central axis (B) of the tyre component laid on, characterized in that the actuator can rotate the axis of rotation of the tyre assembly drum about a z-axis (z) and parallel to an x-y plane (x, y) or adjust it as desired in space. wherein the tyre assembly drum can be rotated about an axis of rotation to wind up the tyre component supplied, wherein the tyre assembly system also has a sensor device with a detection region (E) aimed at the feeder tray for determining a geometry of a tyre component laid on the feeder tray and/or for determining an alignment of a tyre component laid on the feeder tray , wherein the tyre assembly drum is coupled to an actuator in such a way that the axis of rotation of the tyre assembly drum can be adjusted by controlling the actuator , wherein, depending on the determined geometry and/or the determined alignment of the tyre component laid on the feeder tray , the actuator can be controlled in such a way that, depending on the determined geometry and/or the determined alignment of the tyre component laid on the feeder tray , the axis of rotation of the tyre assembly drum is also adjusted relative to a tyre component central axis (B) of the tyre component laid on, characterized in that the actuator can rotate the axis of rotation of the tyre assembly drum about a z-axis (z) and parallel to an x-y plane (x, y) or adjust it as desired in space.