mhurhangee/ep-ind-claims huggingface dataset:
Dust container for a vacuum cleaner, the dust container comprising a dust bag, made of an air permeable material, and a connector plate, surrounding an opening in the dust bag, whereby the connector plate is configured to correctly position the opening within a vacuum cleaner by the connector plate being slid into a holder of the vacuum cleaner, characterized by the connector plate comprising a central portion surrounding said opening, and an extending portion projecting from the central portion in the plane thereof, wherein the extending portion is configured to have a lower bending stiffness about an axis perpendicular to the direction in which it extends from the central portion than has the central portion, such that the extending portion can be bent out of the plane of the central portion into a step-wise or continuous curvature without bending the central portion, wherein the extending portion is provided partly as a waist portion, extending from the central portion and having a lesser width and thereby a smaller extension in a lateral direction than has the central portion. a dust bag, made of an air permeable material, and a connector plate, surrounding an opening in the dust bag, whereby the connector plate is configured to correctly position the opening within a vacuum cleaner by the connector plate being slid into a holder of the vacuum cleaner, characterized by the connector plate comprising a central portion surrounding said opening, and an extending portion projecting from the central portion in the plane thereof, wherein the extending portion is configured to have a lower bending stiffness about an axis perpendicular to the direction in which it extends from the central portion than has the central portion, such that the extending portion can be bent out of the plane of the central portion into a step-wise or continuous curvature without bending the central portion, wherein the extending portion is provided partly as a waist portion, extending from the central portion and having a lesser width and thereby a smaller extension in a lateral direction than has the central portion.
Method for fabrication of an antiferromagnetic and temperature compensated timepiece balance spring, characterized in that said method includes the following steps: - selecting an amagnetic compensating alloy, of the iron-chromium-nickel-manganese-beryllium type, comprising, by mass percent, between and including the range limit values: - from 21.0% to 25.0% of manganese, - from 9.0% to 13.0% of nickel, - from 6.0% to 15.0% of chromium, - from 0.2% to 2.0% of beryllium, - the remainder iron, - the total of nickel and manganese being greater than or equal to 33.0%, - working said alloy to obtain a blank, - shaping said blank by casting and/or forging and/or wire drawing and/or rolling and/or drawing, to obtain a blank of spring wire; - winding said wire on a winder to obtain a spiral spring, - subjecting said spiral spring to at least a heat setting treatment, by annealing at a temperature comprised between 540°C and 650°C, for a duration of 30 to 200 minutes, to obtain a balance spring. - selecting an amagnetic compensating alloy, of the iron-chromium-nickel-manganese-beryllium type, comprising, by mass percent, between and including the range limit values: - from 21.0% to 25.0% of manganese, - from 9.0% to 13.0% of nickel, - from 6.0% to 15.0% of chromium, - from 0.2% to 2.0% of beryllium, - the remainder iron, - the total of nickel and manganese being greater than or equal to 33.0%, - from 21.0% to 25.0% of manganese, - from 9.0% to 13.0% of nickel, - from 6.0% to 15.0% of chromium, - from 0.2% to 2.0% of beryllium, - the remainder iron, - the total of nickel and manganese being greater than or equal to 33.0%, - working said alloy to obtain a blank, - shaping said blank by casting and/or forging and/or wire drawing and/or rolling and/or drawing, to obtain a blank of spring wire; - winding said wire on a winder to obtain a spiral spring, - subjecting said spiral spring to at least a heat setting treatment, by annealing at a temperature comprised between 540°C and 650°C, for a duration of 30 to 200 minutes, to obtain a balance spring.
Method for operating a gear-processing machine, comprising the following steps: - carrying out the machining of a first workpiece in the machine, wherein the first workpiece heats up because of the machining, - determining at least one characteristic workpiece variable (W.1) on the first workpiece in the heated state, wherein a measuring device, which is part of the machine, is used for the determination, - carrying out a compensation determination on the basis of the at least one characteristic workpiece variable (W.1) of the first workpiece and at least one characteristic workpiece variable (W.R) of a reference workpiece, wherein ∘ the characteristic workpiece variable (W.R) of the reference workpiece was determined in the machine after reaching a steady-state temperature (T VH), ∘ at least one compensation value is determined in the scope of the compensation determination, - adapting the machine setting in consideration of the at least one compensation value, - carrying out the machining of a further workpiece (n) in the machine. - carrying out the machining of a first workpiece in the machine, wherein the first workpiece heats up because of the machining, - determining at least one characteristic workpiece variable (W.1) on the first workpiece in the heated state, wherein a measuring device, which is part of the machine, is used for the determination, - carrying out a compensation determination on the basis of the at least one characteristic workpiece variable (W.1) of the first workpiece and at least one characteristic workpiece variable (W.R) of a reference workpiece, wherein ∘ the characteristic workpiece variable (W.R) of the reference workpiece was determined in the machine after reaching a steady-state temperature (T VH), ∘ at least one compensation value is determined in the scope of the compensation determination, ∘ the characteristic workpiece variable (W.R) of the reference workpiece was determined in the machine after reaching a steady-state temperature (T VH), ∘ at least one compensation value is determined in the scope of the compensation determination, - adapting the machine setting in consideration of the at least one compensation value, - carrying out the machining of a further workpiece (n) in the machine.
Method for the resistance welding of workpieces (121, 122), wherein welding electrodes (111, 112) are pressed against a welding point of the workpieces (121, 122) with the aid of an electrode drive and are energized with a welding current, wherein a first temporal profile (310, 410, 510) of an actual position value linked to a welding electrode position is determined, and wherein a second temporal profile (320, 420, 520) of a torque of the electrode drive is determined, characterized in that the first temporal profile (310, 410, 510) is analysed for an extreme value characterizing a maximum electrode spacing as a first characteristic feature, wherein, if the first characteristic feature is identified in the first temporal profile (310, 410, 510), the second temporal profile (320, 420, 520) is analysed for an increase as a second characteristic feature, and wherein a period for which the welding electrodes (111, 112) are energized is determined on the basis of an occurrence of the characteristic features. wherein welding electrodes (111, 112) are pressed against a welding point of the workpieces (121, 122) with the aid of an electrode drive and are energized with a welding current, wherein a first temporal profile (310, 410, 510) of an actual position value linked to a welding electrode position is determined, and wherein a second temporal profile (320, 420, 520) of a torque of the electrode drive is determined, characterized in that the first temporal profile (310, 410, 510) is analysed for an extreme value characterizing a maximum electrode spacing as a first characteristic feature, wherein, if the first characteristic feature is identified in the first temporal profile (310, 410, 510), the second temporal profile (320, 420, 520) is analysed for an increase as a second characteristic feature, and wherein a period for which the welding electrodes (111, 112) are energized is determined on the basis of an occurrence of the characteristic features.
A polynucleotide modified to have at least 200 codons whose base sequence is different from a wild-type base sequence encoding a horseradish peroxidase polypeptide Cla, having codon usage frequencies in the following percentages, and being capable of expressing the polypeptide to be encoded in a filamentous fungus, wherein in a case where an amino acid encoded by the modified codon is alanine, a usage frequency of GCC is 77.5% to 82.5% and a usage frequency of GCT is 17.5% to 22.5%; in a case where the amino acid encoded by the modified codon is arginine, a usage frequency of CGC is 87.5% to 92.5% and a usage frequency of CGT is 7.5% to 12.5%; in a case where the amino acid encoded by the modified codon is asparagine, a usage frequency of AAC is 100%; in a case where the amino acid encoded by the modified codon is aspartic acid, a usage frequency of GAC is 92.5% to 97.5% and a usage frequency of GAT is 2.5% to 7.5%; in a case where the amino acid encoded by the modified codon is cysteine, a usage frequency of TGC is 100%; in a case where the amino acid encoded by the modified codon is glutamine, a usage frequency of CAG is 100%; in a case where the amino acid encoded by the modified codon is glutamic acid, a usage frequency of GAG is 100%; in a case where the amino acid encoded by the modified codon is glycine, a usage frequency of GGC is 72.5% to 77.5% and a usage frequency of GGT is 22.5% to 27.5%; in a case where the amino acid encoded by the modified codon is histidine, a usage frequency of CAC is 100%; in a case where the amino acid encoded by the modified codon is isoleucine, a usage frequency of ATC is 100%; in a case where the amino acid encoded by the modified codon is leucine, a usage frequency of CTC is 77.5% to 82.5% and a usage frequency of CTG is 17.5% to 22.5%; in a case where the amino acid encoded by the modified codon is lysine, a usage frequency of AAG is 100%; in a case where the amino acid encoded by the modified codon is phenylalanine, a usage frequency of TTC is 100%; in a case where the amino acid encoded by the modified codon is proline, a usage frequency of CCC is 77.5% to 82.5% and a usage frequency of CCT is 17.5% to 22.5%; in a case where the amino acid encoded by the modified codon is serine, a usage frequency of AGC is 12.5% to 17.5% and a usage frequency of TCC is 82.5% to 87.5%; in a case where the amino acid encoded by the modified codon is threonine, a usage frequency of ACC is 82.5% to 87.5% and a usage frequency of ACG is 12.5% to 17.5%; in a case where the amino acid encoded by the modified codon is tyrosine, a usage frequency of TAC is 100%; and in a case where the amino acid encoded by the modified codon is valine, a usage frequency of GTC is 82.5% to 87.5%, a usage frequency of GTG is 2.5% to 7.5%, and a usage frequency of GTT is 7.5% to 12.5%; the wild-type base sequence encoding a horseradish peroxidase polypeptide is the base sequence of SED ID NO: 3, and the number of amino acids with the codon usage frequencies in the aforementioned percentages are all of 18 amino acids mentioned above.
A solar refraction device ("SRD") for heating a heating container having a bottom with diffuse solar energy that impinges on an outside surface of the SRD and is refracted through the SRD, the SRD comprising: a lens array assembly; and a plurality of lens panes attached to the lens array assembly, wherein the lens array assembly includes an outside surface corresponding to the outside surface of the SRD, an inside surface, and a plurality of lens array sub-assemblies (110, 112, 114, 116, 118, 120, 122, 124, 126), wherein a sub-plurality of lens panes, of the plurality of lens panes 104, is attached to a corresponding lens array sub-assembly of the plurality of lens array sub-assemblies (110, 112, 114, 116, 118, 120, 122, 124, 126), wherein a lens array sub-assembly, of the plurality of lens array sub-assemblies, has a convex shape, wherein each lens array sub-assembly is configured to have a focal length corresponding to the lens array sub-assembly which results in the lens array assembly having a plurality of focal lengths, characterized in that the multiple lens array sub-assemblies each have a different focal length, wherein the lens array assembly and plurality of lens panes are configured to refract and focus the diffuse solar energy on the surface of the outside surface of the lens array assembly onto a heating area within the heating container, said heating area being defined by the focal points of the lens array sub-assemblies. a lens array assembly; and a plurality of lens panes attached to the lens array assembly, wherein the lens array assembly includes an outside surface corresponding to the outside surface of the SRD, an inside surface, and a plurality of lens array sub-assemblies (110, 112, 114, 116, 118, 120, 122, 124, 126), an outside surface corresponding to the outside surface of the SRD, an inside surface, and a plurality of lens array sub-assemblies (110, 112, 114, 116, 118, 120, 122, 124, 126), wherein a sub-plurality of lens panes, of the plurality of lens panes 104, is attached to a corresponding lens array sub-assembly of the plurality of lens array sub-assemblies (110, 112, 114, 116, 118, 120, 122, 124, 126), wherein a lens array sub-assembly, of the plurality of lens array sub-assemblies, has a convex shape, wherein each lens array sub-assembly is configured to have a focal length corresponding to the lens array sub-assembly which results in the lens array assembly having a plurality of focal lengths, characterized in that the multiple lens array sub-assemblies each have a different focal length, wherein the lens array assembly and plurality of lens panes are configured to refract and focus the diffuse solar energy on the surface of the outside surface of the lens array assembly onto a heating area within the heating container, said heating area being defined by the focal points of the lens array sub-assemblies.
Ultrasonic motor comprising an ultrasonic actuator in the form of a plate with two main surfaces which are largest in terms of area and are arranged opposite one another and with at least four side surfaces which connect the main surfaces to one another, wherein on one of the side surfaces at least one friction element is disposed with a friction point or a friction surface for friction contact with an element to be driven, and with a holder in which the ultrasonic actuator is inserted, wherein the direction of a connection line V which runs through the friction point or the friction surface and through the center of gravity S of the ultrasonic actuator defines an effective direction, and wherein a plane through which the connection line passes at an essentially perpendicular angle and intersects the ultrasonic actuator defines an effective plane W, and the holder comprises at least two force introduction portions which introduce a force into the holder in order to displace the same and with the same the ultrasonic actuator in a direction parallel to the effective direction, wherein the force introduction sections are disposed in each case in the effective plane W and laterally next to and at a distance from the ultrasonic actuator, and the intersection point SP of the connection line V with the effective plane W either coincides with the center of gravity or is disposed between the center of gravity s of the ultrasonic actuator and the side surface of the ultrasonic actuator on which the friction element is arranged, characterized in that at least one of the force introduction portions is formed by a first permanent magnet and two second permanent magnets arranged opposite the first permanent magnet in each case, and in that the first permanent magnet and the two second permanent magnets interact in such a way that one of the second permanent magnets exerts an attracting force on the first permanent magnet, and the other of the second permanent magnets acts on the first permanent magnet exerting a repulsive force.
A method of operating a computing device comprising a wireless network interface, the method comprising: for each of a plurality of packets communicated over a channel, determining, based on error correcting coding associated with a packet, a degree of difference between the packet as transmitted and the packet as received, wherein determining the degree of difference comprises determining a packet error rate in packets transmitted by the computing device by determining a number of bit errors corrected in the packets; obtaining a signal strength indication indicating a signal strength of the channel; analyzing the degree of difference to determine whether the degree of difference exceeds a first threshold; in response to determining that the degree of difference exceeds a first threshold, initiating an adaptation process for communications over the channel, wherein the adaptation process comprises identifying a period of low activity for communication in the channel and switching to another channel during the identified period of low activity if the signal strength indication exceeds a second threshold and if the degree of difference exceeds a third threshold; in response to determining that the degree of difference does not exceed a first threshold initiating another adaptation process for communications over the channel, wherein the another adaptation process comprises increasing a data rate for transmission of packets in the channel if the signal strength indication exceeds the second threshold and if the degree of difference does not exceed a fourth threshold. for each of a plurality of packets communicated over a channel, determining, based on error correcting coding associated with a packet, a degree of difference between the packet as transmitted and the packet as received, wherein determining the degree of difference comprises determining a packet error rate in packets transmitted by the computing device by determining a number of bit errors corrected in the packets; obtaining a signal strength indication indicating a signal strength of the channel; analyzing the degree of difference to determine whether the degree of difference exceeds a first threshold; in response to determining that the degree of difference exceeds a first threshold, initiating an adaptation process for communications over the channel, wherein the adaptation process comprises identifying a period of low activity for communication in the channel and switching to another channel during the identified period of low activity if the signal strength indication exceeds a second threshold and if the degree of difference exceeds a third threshold; in response to determining that the degree of difference does not exceed a first threshold initiating another adaptation process for communications over the channel, wherein the another adaptation process comprises increasing a data rate for transmission of packets in the channel if the signal strength indication exceeds the second threshold and if the degree of difference does not exceed a fourth threshold.
A metal plate comprising an upper surface, a side wall surface, a lower surface and a side wall surface in this order in succession in a Y-direction to form a row having a shape of a projection and a recess, each of the projection and the recess being trapezoidal in shape to form a corrugated cross sectional shape in the Y-direction and extending in a row in an X-direction that is perpendicular to the Y-direction, wherein each side wall is provided such that a width between the two upper surfaces positioned to interpose the lower surface is wider than a width of the lower surface, wherein the upper surface of the projection is formed into a wave shape in a first cross-section (d-d) along the X-direction of a row of the upper surface, the first cross-section (d-d) being perpendicular to a second cross-section (X-Y) containing the Y-direction of the row having the shape of the projection and the recess and the X-direction of the row of the upper surface and the lower surface, and wherein the lower surface of the recess is formed into a wave shape in a third cross-section (c-c) along the X-direction of a row of the lower surface, the third cross-section (c-c) being perpendicular to the second cross-section (X-Y), characterized in that each side wall surface is formed into a wave shape in plan view such that each projection has a shape of a flat hexagon with round corner portions which flat hexagons are in succession with no gap therebetween in X-direction, and the minimum width portion between adjacent hexagons becomes narrow portion 2a.
A method for enhancing visual representation of a geologic feature in 3D seismic survey data, comprising the steps of: (a) generating by means of a computer a plurality of first attribute volumes, each comprising at least one characterising attribute, derivable from said 3D seismic data and different from the characterising attributes of any one of the other said plurality of first attribute volumes; (b) generating by means of a computer a plurality of filtered attribute volumes for each one of said plurality of first attribute volumes, utilizing a plurality of distinct filter settings at each one of said plurality of first attribute volumes; (c) generating a composite attribute volume by selectively combining one or more of said plurality of filtered attribute volumes so as to provide instant feedback to the user and maximise visual detectability of said geologic feature, and (d) selectively adjusting at least one filter parameter of any one of said plurality of filtered attribute volumes and/or said composite attribute volume, so as to maximise enhancement of the visual representation of said geologic feature; wherein said filter parameter is a filter kernel size and/or a standard deviation σ of a Gaussian smoothing filter. (a) generating by means of a computer a plurality of first attribute volumes, each comprising at least one characterising attribute, derivable from said 3D seismic data and different from the characterising attributes of any one of the other said plurality of first attribute volumes; (b) generating by means of a computer a plurality of filtered attribute volumes for each one of said plurality of first attribute volumes, utilizing a plurality of distinct filter settings at each one of said plurality of first attribute volumes; (c) generating a composite attribute volume by selectively combining one or more of said plurality of filtered attribute volumes so as to provide instant feedback to the user and maximise visual detectability of said geologic feature, and (d) selectively adjusting at least one filter parameter of any one of said plurality of filtered attribute volumes and/or said composite attribute volume, so as to maximise enhancement of the visual representation of said geologic feature;