mhurhangee/ep-ind-claims huggingface dataset:
Method for monitoring a bearing clearance of a roller bearing, in particular a bearing clearance of a large bearing, specifically of a wind turbine, and in particular of the bearing clearance of the main bearing of a wind turbine, characterized in that - within the scope of a first measuring series using at least one distance sensor, a distance (a, a 1, a 2) between a rotating part and a stationary part is respectively sensed in at least two different recurring load states, and there is a difference (Δa) between the measured distances (a, a 1, a 2), - at a later time the sensing of the distance (a, a 1, a 2) is repeated in the at least two different recurring load states within the scope of a second measuring series, - changes in the bearing clearance are inferred on the basis of the changes in the difference (Δa) between the measured distances (a, a 1, a 2) in the two measuring series. - within the scope of a first measuring series using at least one distance sensor, a distance (a, a 1, a 2) between a rotating part and a stationary part is respectively sensed in at least two different recurring load states, and there is a difference (Δa) between the measured distances (a, a 1, a 2), - at a later time the sensing of the distance (a, a 1, a 2) is repeated in the at least two different recurring load states within the scope of a second measuring series, - changes in the bearing clearance are inferred on the basis of the changes in the difference (Δa) between the measured distances (a, a 1, a 2) in the two measuring series.
A system for fixing tensioned false partitions, consisting of a flexible fabric attached by its borders to a frame fixed to the wall or ceiling of a room, said frame consisting of a rail formed from abutted profiles comprising at least two advantageously parallel flanges (5, 7), one of which, referred to as external, comprises on one side means for fixing to the wall or ceiling and has on the other side a shoulder extending perpendicularly towards the inside of the rail in the direction of the room, and the other one of which, referred to as internal, is connected to the first by a web situated at one of its ends and extends at the other end a little beyond the shoulder of the first flange in order to form the peripheral abutment of the fabric that is tensioned substantially perpendicular to the internal flange by means of its borders provided with a harpoon formed by an internal branch by means of which it is connected to the fabric and an external branch folded over the first, the end rim of which comes into abutment on the shoulder of the external flange, said harpoon comprises a detachment lip extending under said shoulder in the gap lying between the latter and the internal flange of the rail, the detachment lip comprising a part on which a dismantling tool is intended to come to bear in order to disengage the harpoon from the rail, said fixing system being characterised in that the rail comprises a cant at the end of the external vertical flange procuring an entry bevel for facilitating the insertion of a dismantling tool, the cant being arranged with the shoulder so that the bearing part of the detachment lip is situated closer to the end rim than the end part of the detachment lip extending beyond the cant.
A vehicle roof comprising a transparent roof portion and a roller blind assembly for shading the transparent roof portion, the roller blind assembly comprising a roller blind web whose lateral edges are each guided in a guide track of a guide rail, characterized in that the guide rail comprises a rail body which extends along the transparent roof portion and which is an injection-molded plastic part, and the guide track is formed by a profile which is an insert of the injection-molded plastic part and which is overmolded with the injection-molded plastic part.
Stator for an electrical machine, in particular for a small brushless motor, comprising a stator body and a polyphase winding which is situated in the said stator body and is composed of coils, comprising an interconnection element which connects the coils and has a support, which is composed of insulating material, and electrical conductor strips, which are arranged on the support, for establishing switching connections between the coils, characterized in that the electrical conductor strips are designed as bent wires, wherein the coil ends of the coils are each connected to a flat connection pin of the stator, wherein the wires, in their course, have bent-out portions for the connection of the coil ends (121, 122) of the coils of the winding, wherein the coil ends (121, 122) of the coil are placed on connection pins which axially project from the stator body on the end side of the said stator body, and the connection pins are electrically conductively welded or soldered to the bent-out portions in the wires of the interconnection element.
An implantable medical device, comprising: an electrical circuit; and a hermetic enclosure defining a cavity for retaining the electrical circuit and comprising: a glass lid having an internal surface facing the cavity and an opposing external surface facing away from the cavity and separated from the internal surface by a lid thickness; wherein the glass lid comprises: a glass wafer base layer defining the internal surface; a glass wafer top layer defining the external surface; and a hermetically sealed interface between the glass wafer base layer and the glass wafer top layer along the interface that is embedded within the lid, wherein the glass wafer base layer is fusion bonded to the glass wafer top layer; and an electrically conductive feedthrough extending through the glass lid, the feedthrough comprising: a first feedthrough member having an inner face electrically coupled to the electrical circuit, the first feedthrough member extending from the inner face partially through the lid thickness and to an exteriorly-facing outer face embedded within the lid, and an electrically conductive trace at least partially embedded in the lid between the glass wafer top layer and the glass wafer base layer, extending away from the exteriorly-facing outer face and electrically coupling the exteriorly-facing outer face to an electrical connection point located along the lid external surface. an electrical circuit; and a hermetic enclosure defining a cavity for retaining the electrical circuit and comprising: a glass wafer base layer defining the internal surface; a glass wafer top layer defining the external surface; and a hermetically sealed interface between the glass wafer base layer and the glass wafer top layer along the interface that is embedded within the lid, wherein the glass wafer base layer is fusion bonded to the glass wafer top layer; and an electrically conductive feedthrough extending through the glass lid, the feedthrough comprising: a first feedthrough member having an inner face electrically coupled to the electrical circuit, the first feedthrough member extending from the inner face partially through the lid thickness and to an exteriorly-facing outer face embedded within the lid, and an electrically conductive trace at least partially embedded in the lid between the glass wafer top layer and the glass wafer base layer, extending away from the exteriorly-facing outer face and electrically coupling the exteriorly-facing outer face to an electrical connection point located along the lid external surface. a first feedthrough member having an inner face electrically coupled to the electrical circuit, the first feedthrough member extending from the inner face partially through the lid thickness and to an exteriorly-facing outer face embedded within the lid, and an electrically conductive trace at least partially embedded in the lid between the glass wafer top layer and the glass wafer base layer, extending away from the exteriorly-facing outer face and electrically coupling the exteriorly-facing outer face to an electrical connection point located along the lid external surface.
A 5 or 6 amino acid glycosylated oligopeptide having the sequence: Palmitoyl-X1-Lys-X2-X3-Lys-X4-OH, wherein: X1 is: absent, Ser having a glycosylated side chain, or Asn having a glycosylated side chain; X2 is: Thr having a glycosylated side chain, Thr, Asn having a glycosylated side chain, or Ser having a glycosylated side chain; X3 is: Thr, or Thr having a glycosylated side chain; X4 is: Ser, or Ser having a glycosylated side chain, wherein: at least one of X2, X1, X3 and X4 is an amino acid having a glycosylated side chain; wherein: each glycosylated side chain is, independently, glycosylated with a carbohydrate selected from the group consisting of: maltose, glucose, N-acetyl-glucosamine, galactose, N-acetyl-galactosamine, mannose, lactose, rhamnose, cellobiose, xylose, and fucose; and wherein: each hydroxyl group on the carbohydrate is, independently, OH or acetylated. X1 is: absent, Ser having a glycosylated side chain, or Asn having a glycosylated side chain; X2 is: Thr having a glycosylated side chain, Thr, Asn having a glycosylated side chain, or Ser having a glycosylated side chain; X3 is: Thr, or Thr having a glycosylated side chain; X4 is: Ser, or Ser having a glycosylated side chain, wherein: at least one of X2, X1, X3 and X4 is an amino acid having a glycosylated side chain; wherein: each glycosylated side chain is, independently, glycosylated with a carbohydrate selected from the group consisting of: maltose, glucose, N-acetyl-glucosamine, galactose, N-acetyl-galactosamine, mannose, lactose, rhamnose, cellobiose, xylose, and fucose; and wherein: each hydroxyl group on the carbohydrate is, independently, OH or acetylated.
A power control system startup method comprising: coupling a device to receive an input voltage and responsively generate a bias current to provide the bias current to a control electrode of an output transistor of the device; and coupling the output transistor of the device to generate an output current that is greater than the bias current; characterised by: coupling a switch element (17; 51) to shunt the bias current away from the output transistor and to charge an output capacitor when an output voltage is less than a first value; coupling the switch element (17; 51) to use the bias current for enabling the output transistor in response to the output voltage across the output capacitor as it reaches the first value: and charging the output capacitor when the output voltage is greater than the first value. coupling a device to receive an input voltage and responsively generate a bias current to provide the bias current to a control electrode of an output transistor of the device; and coupling the output transistor of the device to generate an output current that is greater than the bias current; characterised by: coupling a switch element (17; 51) to shunt the bias current away from the output transistor and to charge an output capacitor when an output voltage is less than a first value; coupling the switch element (17; 51) to use the bias current for enabling the output transistor in response to the output voltage across the output capacitor as it reaches the first value: and charging the output capacitor when the output voltage is greater than the first value. coupling a switch element (17; 51) to shunt the bias current away from the output transistor and to charge an output capacitor when an output voltage is less than a first value; coupling the switch element (17; 51) to use the bias current for enabling the output transistor in response to the output voltage across the output capacitor as it reaches the first value: and charging the output capacitor when the output voltage is greater than the first value.
A semiconductor device comprising: a die electrically coupled to a substrate; a first memory device electrically coupled to a surface of the die opposite the substrate, the first memory device partially overlapping the die; an interposer electrically coupled between the surface of the die opposite the substrate and a second memory device, wherein the second memory device partially overlaps the first memory device, the interposer being adjacent to the first memory device; and a redistribution layer between the die and the first memory device and the interposer, wherein the redistribution layer facilitates electrically coupling the first memory device and the interposer. a die electrically coupled to a substrate; a first memory device electrically coupled to a surface of the die opposite the substrate, the first memory device partially overlapping the die; an interposer electrically coupled between the surface of the die opposite the substrate and a second memory device, wherein the second memory device partially overlaps the first memory device, the interposer being adjacent to the first memory device; and a redistribution layer between the die and the first memory device and the interposer, wherein the redistribution layer facilitates electrically coupling the first memory device and the interposer.
A method of generating a library of variants of a sequence of interest, said method comprising the steps of: (a) providing a template DNA molecule comprising said sequence of interest; (b) providing a pair of oligonucleotides wherein said oligonucleotides hybridize to said sequence of interest, wherein one of said oligonucleotides is protected, the other oligonucleotide is non-protected, and said oligonucleotides flank said sequence of interest; (c) performing an amplification reaction to induce sequence changes relative to said template DNA molecule using said oligonucleotides, thereby generating a population of dsDNA variants; (d) incubating said population of dsDNA variants with an enzyme capable of selectively degrading the non-protected strand over the protected strand of said dsDNA variants, thereby producing a population of ssDNA variants; (e) hybridizing said population of ssDNA variants to ssDNA intermediaries, wherein said ssDNA intermediaries comprise a sequence substantially identical to said sequence of interest or a fragment thereof, generating heteroduplex DNA, wherein said ssDNA intermediaries are circular and are uracilated ssDNA intermediaries or methylated ssDNA intermediaries; and (f) transforming said heteroduplex DNA into cells, wherein said cells are capable of selectively degrading uracilated DNA or methylated DNA, thereby generating a library of variants of said sequence of interest. (a) providing a template DNA molecule comprising said sequence of interest; (b) providing a pair of oligonucleotides wherein said oligonucleotides hybridize to said sequence of interest, wherein one of said oligonucleotides is protected, the other oligonucleotide is non-protected, and said oligonucleotides flank said sequence of interest; (c) performing an amplification reaction to induce sequence changes relative to said template DNA molecule using said oligonucleotides, thereby generating a population of dsDNA variants; (d) incubating said population of dsDNA variants with an enzyme capable of selectively degrading the non-protected strand over the protected strand of said dsDNA variants, thereby producing a population of ssDNA variants; (e) hybridizing said population of ssDNA variants to ssDNA intermediaries, wherein said ssDNA intermediaries comprise a sequence substantially identical to said sequence of interest or a fragment thereof, generating heteroduplex DNA, wherein said ssDNA intermediaries are circular and are uracilated ssDNA intermediaries or methylated ssDNA intermediaries; and (f) transforming said heteroduplex DNA into cells, wherein said cells are capable of selectively degrading uracilated DNA or methylated DNA, thereby generating a library of variants of said sequence of interest.
A method for estimating the stress intensity factor in a numerically modeled part, within the context of a fatigue crack propagation model, implemented by a system comprising a data processing unit, the method for estimating comprising the following steps: -: obtaining from a numerical model of the part to be analyzed, a plurality of values simulated at different points of the part to be analyzed, said plurality of simulated values comprising, for different simulated propagation increments a three-dimensional crack which appears on the numerical model of the part, a set of simulated values of the stress intensity factor at associated points, the position of these points, and data relating to the cracked surface of the crack, -: determining, for each propagation increment and for the set of simulated values therefor, a converted amplitude value of the equivalent global effective stress intensity factor corresponding to that of a plane crack with a straight front and a converted length of the equivalent crack considered, said converted values being determined by equalizing the energy dissipated in the three-dimensional crack of the numerical model and the energy dissipated in the crack of a standard model of a plane crack with a straight front, the energies themselves being determined according to the stress intensity factors, -: Interpolating converted amplitude values of equivalent global effective stress intensity factor between two successive converted crack lengths, -: Storing the converted amplitude values of equivalent global effective stress intensity factor thus interpolated with the associated crack lengths. -: obtaining from a numerical model of the part to be analyzed, a plurality of values simulated at different points of the part to be analyzed, said plurality of simulated values comprising, for different simulated propagation increments a three-dimensional crack which appears on the numerical model of the part, a set of simulated values of the stress intensity factor at associated points, the position of these points, and data relating to the cracked surface of the crack, -: determining, for each propagation increment and for the set of simulated values therefor, a converted amplitude value of the equivalent global effective stress intensity factor corresponding to that of a plane crack with a straight front and a converted length of the equivalent crack considered, said converted values being determined by equalizing the energy dissipated in the three-dimensional crack of the numerical model and the energy dissipated in the crack of a standard model of a plane crack with a straight front, the energies themselves being determined according to the stress intensity factors, -: Interpolating converted amplitude values of equivalent global effective stress intensity factor between two successive converted crack lengths, -: Storing the converted amplitude values of equivalent global effective stress intensity factor thus interpolated with the associated crack lengths.
Loop-forming process, which comprises the following actions: • a plurality of system components (11, 12) are moved relatively to a needle bed and said system components (11, 12) contact threads for forming loops, • at least one spacer is placed between at least two adjacent system components (11, 12) of said plurality of system components (11, 12) and defines the distance between said two adjacent system components (11, 12), the spacer being in mechanical contact with said two adjacent system components (11, 12), • said spacer is placed away from and does not contact threads, • said spacer is moved with respect to the needle bed characterized in that the spacer is also moved with respect to both said two adjacent system components (11, 12) at least for a period of time during the loop forming process. • a plurality of system components (11, 12) are moved relatively to a needle bed and said system components (11, 12) contact threads for forming loops, • at least one spacer is placed between at least two adjacent system components (11, 12) of said plurality of system components (11, 12) and defines the distance between said two adjacent system components (11, 12), the spacer being in mechanical contact with said two adjacent system components (11, 12), • said spacer is placed away from and does not contact threads, • said spacer is moved with respect to the needle bed
Method for the corrosion-protective pretreatment of metal surfaces in a process sequence which comprising a conversion treatment stage having an aqueous composition containing overall at least 50 ppm of the elements B, Si, Ti, Zr, and/or Hf in the form of water-soluble compounds with a pH of 3 to 5.5, wherein the metallic surface passes through at least the following treatment stages in succession: Pre-rinsing with water containing overall at least 10 ppm of the elements B, Si, Ti, Zr, and/or Hf in the form of water-soluble compounds Conversion treatment with the aqueous composition Post-rinsing with water containing a portion of the aqueous composition of the treatment stage, characterized in that the aqueous composition of the conversion treatment stage contains a portion of fluorine which is bound in the form of fluoro complexes of the elements B, Si, Ti, Zr, and/or Hf or in excess, and a portion of unbound fluorine in the form of free fluoride, and the pH in the pre-rinse stage is in a range of 5 to 7.0. Pre-rinsing with water containing overall at least 10 ppm of the elements B, Si, Ti, Zr, and/or Hf in the form of water-soluble compounds Conversion treatment with the aqueous composition Post-rinsing with water containing a portion of the aqueous composition of the treatment stage,
A capsule integrated with a nail polish applying element for usage by a nail polish application apparatus comprising a capsule compartment adapted to host the capsule and a pressure applying element, the capsule comprising: a container housing comprising: a body portion sized and shaped to receive and accommodate a container, at least one conveying tunnel having a proximal end mechanically fixated to a bottom side of the body portion, and a nail polish applying element mounted to receive the nail polish fluid from a distal end of the at least one conveying tunnel for applying the nail polish fluid on a nail surface; and the container defining a reservoir containing nail polish fluid, the container which is separate from the container housing comprises: an upper face with an opening sealed with a sliding gasket, and a bottom face; wherein the nail polish fluid is released from the container into the body portion when the container is fractured; characterized in that the container is fractured as result of an internal pressure built in the reservoir when pressure applied on the sliding gasket causes the sliding gasket to slide towards the bottom face thus reducing a volume of the reservoir. a container housing comprising: a body portion sized and shaped to receive and accommodate a container, at least one conveying tunnel having a proximal end mechanically fixated to a bottom side of the body portion, and a nail polish applying element mounted to receive the nail polish fluid from a distal end of the at least one conveying tunnel for applying the nail polish fluid on a nail surface; and a body portion sized and shaped to receive and accommodate a container, at least one conveying tunnel having a proximal end mechanically fixated to a bottom side of the body portion, and a nail polish applying element mounted to receive the nail polish fluid from a distal end of the at least one conveying tunnel for applying the nail polish fluid on a nail surface; and the container defining a reservoir containing nail polish fluid, the container which is separate from the container housing comprises: an upper face with an opening sealed with a sliding gasket, and a bottom face; an upper face with an opening sealed with a sliding gasket, and a bottom face; wherein the nail polish fluid is released from the container into the body portion when the container is fractured; characterized in that the container is fractured as result of an internal pressure built in the reservoir when pressure applied on the sliding gasket causes the sliding gasket to slide towards the bottom face thus reducing a volume of the reservoir.