mhurhangee/ep-ind-claims huggingface dataset:
Supporting structure (27, 37) for a gas turbine engine, said structure comprising - at least one annular member (20, 21), and - a plurality of circumferentially spaced elements that extend in a radial direction of the annular member (20, 21) and that are connected to the annular member (20, 21), wherein at least one of said circumferentially spaced elements has an airfoil shape in cross section, wherein the annular member (20, 21) comprises - at least two substantially flat panel segments (28, 28a, 28b) that are arranged side by side in a circumferential direction of the annular member (20, 21), wherein said panel segments (28, 28a, 28b) are connected to each other in a connection region that extends along facing end parts of the two panel segments (28, 28a, 28b), and wherein said airfoil shaped element is connected to the annular member (20, 21) at the connection region, wherein a mean camber line of said airfoil shaped element at least along a portion of its length is inclined in relation to an axial direction of the annular member (20, 21), and also said connection region at least along a portion of its length is inclined in relation to the axial direction of the annular member (20, 21), wherein the inclined portion of the connection region is directed substantially in parallel to the inclined portion of the mean camber line of said airfoil shaped element. - at least one annular member (20, 21), and - a plurality of circumferentially spaced elements that extend in a radial direction of the annular member (20, 21) and that are connected to the annular member (20, 21), wherein at least one of said circumferentially spaced elements has an airfoil shape in cross section, - at least two substantially flat panel segments (28, 28a, 28b) that are arranged side by side in a circumferential direction of the annular member (20, 21), wherein said panel segments (28, 28a, 28b) are connected to each other in a connection region that extends along facing end parts of the two panel segments (28, 28a, 28b), and
An engine-driven tool comprising a rotatable work tool, having a center and a circumference, and an engine that is arranged to propel the rotatable work tool, where the engine-driven tool further comprises a shielding cover that is arranged to shield a part of the rotatable work tool, and a first swiveling part that is attached by means of a first swivel attachment and partly extends either inside or outside the shielding cover, allowing the first swiveling part to pivot around a first swivel axis that crosses the rotatable work tool closer to the center of the rotatable work tool than the circumference of the rotatable work tool, wherein the engine-driven tool comprises a second swiveling part that is attached to the first swiveling part and is intended to bear against a work surface, where the second swiveling part partly extends either inside or outside the first swiveling part, where the second swiveling part is attached to the first swiveling part by means of a second swivel attachment, allowing the second swiveling part to pivot around a second swivel axis that runs outside the circumference of the rotatable work tool, enabling the swiveling parts (18, 22) to self-adjust to the work surface such that the amount of dust that enters the shielding cover is increased.
Copolymer containing rigid polyamide blocks and flexible blocks, characterized in that the flexible blocks have an NH 2 /OH ratio of concentrations of amine chain ends to alcohol chain ends that is within the range from 30 to 150, said concentrations being measured by 1 H NMR (TF anh./CD 2 Cl 2).
Incontinence article in pant form for absorbing bodily excretions, with a front stomach section and a rear back section with nonwoven based or nonwoven containing materials or compound materials, which front stomach section and rear back section are formed by separate components which are spaced apart in a longitudinal direction along a longitudinal center axis, which however are connected to each other by the manufacturer at lateral seam regions on both sides to form a stomach and back band which is continuous in transverse or waist circumferential direction having a waist opening that is closed in waist circumferential direction, and with a crotch section having an absorption body and extending in the longitudinal direction between stomach section and back section and is non detachably joined to the stomach section and the back section in a respective overlapping region (36, 38), wherein the stomach section, the back section and the crotch section together delimit leg openings of the incontinence article, wherein in the stomach section and the back section first elastifying means (28, 29) are provided which extend spaced apart and parallel to each other in transverse or waist circumferential direction and in this way provide the stomach section and the back section with planar elasticity, wherein in a crotch side region (22, 26) of the stomach section and the back section which crotch side region faces the leg openings second elastifying means (40, 42) are provided which in particular starting from the two lateral seam regions extend in the direction toward a longitudinal center axis of the incontinence article and as far as into the overlapping region (36, 38) of the crotch section and stomach section or crotch section and back section respectively, wherein they may no longer have their elastifying effect at this location and can in particular be cut, wherein the crotch section is non detachably connected with the stomach section and with the back section by multiple adhesive strips which are provided in the overlapping region of crotch section and stomach section and in the overlapping region of crotch section and back section, and which extend parallel to each other in transverse direction and are spaced apart by adhesive free strips, and wherein thereby visually and tactilely perceptible structures are formed at the outer visual side of the incontinence article in the overlapping region of crotch section and stomach section and in the overlapping region of crotch section and back section, which structures correspond to the course of the adhesive strips and the adhesive free strips and extend in transverse direction and wherein in a in longitudinal direction waist-side border region of the overlapping region (36, 38) and/or in a in longitudinal direction waist-averted border region of the overlapping region (36, 38) a wider adhesive strip (88, 90) which extends in transverse direction is provided, and wherein the respective waist-side border region and the waist-averted border region of the overlapping region (36, 38) includes at most 20% of the longitudinal extent of the respective overlapping region (36, 38).
An industrial automation system comprising: an annotator that is adapted to receive input data derived from raw data including sensed data and/or control data of a controlled machine and to annotate the input data to produce an annotated input data structure (32, 38, 44, 88), wherein annotating the input data includes adding a context to the input data; and the industrial automation system characterized by: an analytics engine (30, 36, 42) executed by a processor (46, 58), instantiated upon request and adapted to act upon the annotated input data structure to classify variables of the annotated input data structure into clusters to produce an output data structure based upon the classification, wherein the analytics engine is adapted to automatically identify a subset of the annotated input data, and to apply automated modeling to extract features that capture causal relationships between process variables and to augment the raw data with the extracted features, wherein the extracted features provide additional information for classifying the variables. an annotator that is adapted to receive input data derived from raw data including sensed data and/or control data of a controlled machine and to annotate the input data to produce an annotated input data structure (32, 38, 44, 88), wherein annotating the input data includes adding a context to the input data; and the industrial automation system characterized by: an analytics engine (30, 36, 42) executed by a processor (46, 58), instantiated upon request and adapted to act upon the annotated input data structure to classify variables of the annotated input data structure into clusters to produce an output data structure based upon the classification, wherein the analytics engine is adapted to automatically identify a subset of the annotated input data, and to apply automated modeling to extract features that capture causal relationships between process variables and to augment the raw data with the extracted features, wherein the extracted features provide additional information for classifying the variables.
A process for purifying liquid sugar prepared from raw granulated cane sugar, characterised for comprising the following stages: I. Dissolving raw granulated sugar in water in order to obtain a raw syrup; II. Filtering the raw syrup; III. Primary bleaching the filtered raw syrup by ion exchange with anionic-type resin; IV. Demineralizing and complementary bleaching the filtered raw syrup by ion exchange with cationic- and anionic-type resins packed in a mixed bed column; V. Polishing the bleached syrup by contact with an adsorbing powder material and filtering, wherein the adsorbing powder material is an activated carbon powder; and VI. Sanitizing the polished syrup with ultra violet rays resulting in a product syrup. I. Dissolving raw granulated sugar in water in order to obtain a raw syrup; II. Filtering the raw syrup; III. Primary bleaching the filtered raw syrup by ion exchange with anionic-type resin; IV. Demineralizing and complementary bleaching the filtered raw syrup by ion exchange with cationic- and anionic-type resins packed in a mixed bed column; V. Polishing the bleached syrup by contact with an adsorbing powder material and filtering, wherein the adsorbing powder material is an activated carbon powder; and VI. Sanitizing the polished syrup with ultra violet rays resulting in a product syrup.
A catheter balloon comprising a cylindrical portion and attaching portions for a catheter, said catheter balloon having a base layer formed of a high-strength polymer and one or more covering layers formed over at least one surface of said base layer of a flexible polymer having a ratio of the tensile fracturing strength of the high-strength polymer to that of the flexible polymer is within the range of about 1:0.7 to 1:1.3 and the said flexible polymer having an elongation at break close to that of said high-strength polymer and being more flexible than said high-strength polymer.
A filament feeder for use in an additive manufacturing system, comprising a main feeder body having mounted thereon a first roller assembly and a second roller assembly, the first and second roller assemblies (a1, a2) being spaced apart along a feed trajectory of the filament feeder, wherein the first roller assembly comprises a first biasing roller and a driven first gripper roller, the first biasing roller and the first gripper roller being journaled for rotation and arranged at an adjustable first roller distance from each other allowing a filament material to be received between the first biasing roller and the first gripper roller, wherein the second roller assembly comprises a second biasing roller and a driven second gripper roller, the second biasing roller and second gripper roller being journaled for rotation and arranged at an adjustable second roller distance from each other allowing the filament material to be received between the second biasing roller and the driven second gripper roller, wherein each of the first and second gripper rollers (5, 7) is arranged for driven rotation in a direction corresponding to a feed direction in which the filament material is to be moved along the feed trajectory, and characterised by further comprising a single spring member having an adjustable length, the spring member being in resilient engagement with the first and second biasing rollers (4,6) and configured to bias the first and second biasing roller (4,6) towards the first and second gripper rollers (5,7), respectively, during an additive manufacturing process. wherein the first roller assembly comprises a first biasing roller and a driven first gripper roller, the first biasing roller and the first gripper roller being journaled for rotation and arranged at an adjustable first roller distance from each other allowing a filament material to be received between the first biasing roller and the first gripper roller, wherein the second roller assembly comprises a second biasing roller and a driven second gripper roller, the second biasing roller and second gripper roller being journaled for rotation and arranged at an adjustable second roller distance from each other allowing the filament material to be received between the second biasing roller and the driven second gripper roller, wherein each of the first and second gripper rollers (5, 7) is arranged for driven rotation in a direction corresponding to a feed direction in which the filament material is to be moved along the feed trajectory, and characterised by further comprising a single spring member having an adjustable length, the spring member being in resilient engagement with the first and second biasing rollers (4,6) and configured to bias the first and second biasing roller (4,6) towards the first and second gripper rollers (5,7), respectively, during an additive manufacturing process.
A rotating component for a turbine engine comprising: a rotor portion protruding radially outward; at least one overweight region is located in said rotor portion; characterised in that at least one additively manufactured counterweight region is positioned relative to said at least one overweight region such that said rotating component is circumferentially balanced; a retaining ring for connecting a rotor coverplate to said rotating component is provided, wherein the at least one additively manufactured counterweight region is a region of said retaining ring; wherein said additively manufactured counterweight region is a portion of said retaining ring, is less than 100% of said retaining ring, and is additively manufactured after a remainder of said rotating component is manufactured. a rotor portion protruding radially outward; at least one overweight region is located in said rotor portion; characterised in that at least one additively manufactured counterweight region is positioned relative to said at least one overweight region such that said rotating component is circumferentially balanced; a retaining ring for connecting a rotor coverplate to said rotating component is provided, wherein the at least one additively manufactured counterweight region is a region of said retaining ring; wherein said additively manufactured counterweight region is a portion of said retaining ring, is less than 100% of said retaining ring, and is additively manufactured after a remainder of said rotating component is manufactured.
An orthopedic reamer head for preparing a bone to receive an implant, the orthopedic reamer head comprising: a body having a generally dome shape and an outer surface extending from an apex region to a base, the outer surface having a recess including an arcuate channel, the arcuate channel extending along a direction from proximate the apex region towards the base; and a cutting system having an arcuate element, the arcuate element including a cutting element for removing bone and a retention element extending from a side of the arcuate element opposite of the cutting element, wherein at least a portion of the arcuate element is located in the arcuate channel, at least a portion of the cutting element extends out of the arcuate channel beyond the outer surface, the arcuate element extends from a first end portion proximate the apex region to a second end portion proximate the base and characterised in that the retention element is at least partially received within a retention aperture in the body and forms a snap-fit connection therewith. a body having a generally dome shape and an outer surface extending from an apex region to a base, the outer surface having a recess including an arcuate channel, the arcuate channel extending along a direction from proximate the apex region towards the base; and a cutting system having an arcuate element, the arcuate element including a cutting element for removing bone and a retention element extending from a side of the arcuate element opposite of the cutting element, wherein at least a portion of the arcuate element is located in the arcuate channel, at least a portion of the cutting element extends out of the arcuate channel beyond the outer surface, the arcuate element extends from a first end portion proximate the apex region to a second end portion proximate the base and characterised in that the retention element is at least partially received within a retention aperture in the body and forms a snap-fit connection therewith. at least a portion of the arcuate element is located in the arcuate channel, at least a portion of the cutting element extends out of the arcuate channel beyond the outer surface, the arcuate element extends from a first end portion proximate the apex region to a second end portion proximate the base and characterised in that the retention element is at least partially received within a retention aperture in the body and forms a snap-fit connection therewith.
A catheter comprising: an elongated catheter body (12, 312); a control handle (16, 17, 316, 317); a needle electrode assembly (46, 346) extending from the control handle, through the catheter body, the needle electrode assembly having a distal end adapted for penetrating tissue at a target site, the needle electrode assembly being longitudinally movable relative to the catheter body, wherein the needle electrode comprises a distal needle portion (55, 355) which has a lumen and is beveled at its distal end; and wherein the catheter further comprises at least one optical waveguide adapted to collect light refracted from the tissue at the target site wherein the at least one optical waveguide comprises an emitter fiber optic (71,371) and a collector fiber optic (73, 373) that extend through the lumen of the needle electrode assembly, each of the emitter and collector fiber optic having a distal end which is positioned in the lumen of the needle portion and is coterminous with the beveled distal end of the distal needle portion. an elongated catheter body (12, 312); a control handle (16, 17, 316, 317); a needle electrode assembly (46, 346) extending from the control handle, through the catheter body, the needle electrode assembly having a distal end adapted for penetrating tissue at a target site, the needle electrode assembly being longitudinally movable relative to the catheter body, wherein the needle electrode comprises a distal needle portion (55, 355) which has a lumen and is beveled at its distal end; and wherein the catheter further comprises at least one optical waveguide adapted to collect light refracted from the tissue at the target site wherein the at least one optical waveguide comprises an emitter fiber optic (71,371) and a collector fiber optic (73, 373) that extend through the lumen of the needle electrode assembly, each of the emitter and collector fiber optic having a distal end which is positioned in the lumen of the needle portion and is coterminous with the beveled distal end of the distal needle portion.
A method performed by a central unit, CU,-control plane, CP, of a base station, BS, the method comprising: transmitting a first message for a bearer context setup request to a CU-user plane, UP, of the BS, wherein the first message includes information for indicating a conditional handover which is a handover executed by a user equipment, UE, when at least one execution condition is satisfied; and receiving a second message for a bearer context setup response from the CU-UP. transmitting a first message for a bearer context setup request to a CU-user plane, UP, of the BS, wherein the first message includes information for indicating a conditional handover which is a handover executed by a user equipment, UE, when at least one execution condition is satisfied; and receiving a second message for a bearer context setup response from the CU-UP.
Composite glass with at least one chemically tempered pane, comprising at least a first pane and a second pane, which are bonded to each other via an intermediate layer, wherein - the first pane is a chemically tempered glass pane with a thickness less than or equal to 2.1 mm, - the intermediate layer contains at least one thermoplastic bonding layer and a thermoplastic carrier layer, and - the carrier layer has a functional coating or functional inclusions, wherein the carrier layer with the functional coating or the functional inclusions is arranged in the intermediate layer, and wherein (i) the carrier layer has a functional coating, which is an IR reflecting or absorbing coating, a UV reflecting or absorbing coating, a coloring coating, a low emissivity coating, a heatable coating, a coating with antenna function, a splinter-binding coating, or a coating for shielding against electromagnetic radiation, or (ii) the carrier layer has functional inclusions with IR absorbing, UV absorbing, or coloring properties, preferably organic or inorganic ions, compounds, aggregates, molecules, crystals, pigments, or dyes. - the first pane is a chemically tempered glass pane with a thickness less than or equal to 2.1 mm, - the intermediate layer contains at least one thermoplastic bonding layer and a thermoplastic carrier layer, and - the carrier layer has a functional coating or functional inclusions, wherein the carrier layer with the functional coating or the functional inclusions is arranged in the intermediate layer, and wherein (i) the carrier layer has a functional coating, which is an IR reflecting or absorbing coating, a UV reflecting or absorbing coating, a coloring coating, a low emissivity coating, a heatable coating, a coating with antenna function, a splinter-binding coating, or a coating for shielding against electromagnetic radiation, or (ii) the carrier layer has functional inclusions with IR absorbing, UV absorbing, or coloring properties, preferably organic or inorganic ions, compounds, aggregates, molecules, crystals, pigments, or dyes. (i) the carrier layer has a functional coating, which is an IR reflecting or absorbing coating, a UV reflecting or absorbing coating, a coloring coating, a low emissivity coating, a heatable coating, a coating with antenna function, a splinter-binding coating, or a coating for shielding against electromagnetic radiation, or (ii) the carrier layer has functional inclusions with IR absorbing, UV absorbing, or coloring properties, preferably organic or inorganic ions, compounds, aggregates, molecules, crystals, pigments, or dyes.