mhurhangee/ep-ind-claims huggingface dataset:
Computer-implemented method for training a model for recommending threshold values of at least one spatial vibration component of an electric rotary machine, wherein - historical data is provided, wherein the historical data comprises time series of at least two operating parameters and at least one spatial vibration component of the electric rotary machine, characterised in that - operating plateaus are detected in the historical data, wherein an operating plateau is defined in that the at least two operating parameters are constant over a predeterminable period of time, - a cluster analysis is performed on the detected operating plateaus in order to detect operating point clusters, wherein various operating point clusters define various operating states of the electric rotary machine, - threshold values to be recommended for the defined operating states are determined for the at least one spatial vibration component, - the defined operating states and the threshold values to be recommended for the defined operating states are provided. - historical data is provided, wherein the historical data comprises time series of at least two operating parameters and at least one spatial vibration component of the electric rotary machine, characterised in that - operating plateaus are detected in the historical data, wherein an operating plateau is defined in that the at least two operating parameters are constant over a predeterminable period of time, - a cluster analysis is performed on the detected operating plateaus in order to detect operating point clusters, wherein various operating point clusters define various operating states of the electric rotary machine, - threshold values to be recommended for the defined operating states are determined for the at least one spatial vibration component, - the defined operating states and the threshold values to be recommended for the defined operating states are provided.
A method for preparing a virtual analysis plate of a cytological or histological specimen disposed on an analysis plate with view to allowing cell analysis of said specimen, comprising the following steps: - carrying out a processing for staining the specimen, said processing being carried out so as to make it possible to differentiate the pathological cells from the healthy cells of the specimen, - performing an acquisition of images of the specimen disposed on the analysis plate, so as to obtain a plurality of images each representing a zone of the analysis plate, said images placed side by side forming an image of the whole of the specimen so as to create a virtual analysis plate, characterized in that it further comprises the following step: - performing on the virtual analysis plate a treatment for virtual re-coloration of the Papanicolaou, Schorr, May Grunwald Giemsa or Giemsa type of these acquired images. - carrying out a processing for staining the specimen, said processing being carried out so as to make it possible to differentiate the pathological cells from the healthy cells of the specimen, - performing an acquisition of images of the specimen disposed on the analysis plate, so as to obtain a plurality of images each representing a zone of the analysis plate, said images placed side by side forming an image of the whole of the specimen so as to create a virtual analysis plate, - performing on the virtual analysis plate a treatment for virtual re-coloration of the Papanicolaou, Schorr, May Grunwald Giemsa or Giemsa type of these acquired images.
An electrolyte for an electrolyte-supported high-temperature fuel cell, characterised in that the electrolyte comprises zirconium oxide which is doped with 4.6 to 5.5 mole % ytterbium oxide, and the electrolyte has a coefficient of thermal expansion, relative to 30°C, at 800°C in the range from 10.6 x 10 -6 K -1 to 11.1 x 10 -6 K -1, determined with reference temperature T1 and final temperature T2 in accordance with TEC T 1, T 2 = 1 / L T 1 * L T 2 − L T 1 / T 2 − T 1, wherein L represents the length of the sample at the reference temperature T1 and L represents the length of the sample at the final temperature T2, and at least 98% of the grains of the zirconium oxide after sintering have a visible diameter in a thermally etched cross-section of an electron-microscope image of less than or equal to 2.0 μm. wherein L represents the length of the sample at the reference temperature T1 and L represents the length of the sample at the final temperature T2, and at least 98% of the grains of the zirconium oxide after sintering have a visible diameter in a thermally etched cross-section of an electron-microscope image of less than or equal to 2.0 μm.
A brake pad retention system, comprising: a brake pad receiving feature of a caliper mount arranged to receive a brake caliper, a lateral brake pad retaining feature arranged to permit a brake application device of the brake caliper to advance the brake pad toward a brake disk while retaining the brake pad against radially-outward motion of the brake pad, wherein the brake pad receiving feature being arranged to receive a brake pad in a radially-inward direction through an opening of the brake caliper mounted on said caliper mount of a disc brake, wherein the lateral brake pad retaining feature are brake pad guiding grooves provided on brake pad abutment surfaces of mount horns of the caliper mount which receives the brake caliper, characterized in that the brake pad receiving features are installation/removal grooves provided on brake pad abutment surfaces of the mount horns of the caliper mount, the brake pad receiving feature being located inside an axially outer periphery of brake pad abutment portions of the caliper mount. a brake pad receiving feature of a caliper mount arranged to receive a brake caliper, a lateral brake pad retaining feature arranged to permit a brake application device of the brake caliper to advance the brake pad toward a brake disk while retaining the brake pad against radially-outward motion of the brake pad, wherein the brake pad receiving feature being arranged to receive a brake pad in a radially-inward direction through an opening of the brake caliper mounted on said caliper mount of a disc brake, wherein the lateral brake pad retaining feature are brake pad guiding grooves provided on brake pad abutment surfaces of mount horns of the caliper mount which receives the brake caliper, characterized in that the brake pad receiving features are installation/removal grooves provided on brake pad abutment surfaces of the mount horns of the caliper mount, the brake pad receiving feature being located inside an axially outer periphery of brake pad abutment portions of the caliper mount.
A compound having the formula: wherein each R 9 independently is selected from the group consisting of hydrogen, methyl, ethyl, propyl, isopropyl and cyclopropyl; each X 4 independently is selected from the group consisting of bromo, chloro, alkylsulfonyloxy, heteroalkylsulfonyloxy, arylsulfonyloxy and heteroarylsulfonyoxy; T is L-Z 3; L is CH 2, CHMe, CMe 2, and Z 3 is selected from the group consisting of or a pharmaceutically acceptable salt thereof.
An elastic attachment hot melt adhesive comprising a tackifier, a plasticizer and a polymer, the polymer having a viscosity lower than 200,000 mPas at 200°C measured in accordance with ASTM D3236; wherein the polymer comprises a non-metallocene catalyzed polymer degraded with peroxide and/or heat; and wherein the non-metallocene catalyzed polymer is a semicrystalline polypropylene homo- or copolymer with a heat of fusion greater than 20 J/g measured in accordance with ASTM D3418-12; wherein the adhesive has a tan δ value of greater than 30 at the adhesive application temperature (the tan δ being calculated by ARES M Rheometer using the temperature ramp method (ARES LS) by placing a sample between parallel plates (25 mm geometry diameter) with a 2 mm gap, testing dynamic temperature sweep from 160°C to 0°C with a frequency of 10 rad/sec and cooling rate of 5°C/minute and calculating the ratio of the storage modulus (G') and the loss modulus (G") (G"/G') to obtain the tan δ value); wherein the amount of tackifier is less than the amount of the polymer in the adhesive; and wherein the plasticizer is selected from the group consisting of paraffinic oil, naphthenic oil, aromatic oil, long chain partial ether ester, alkyl monoesters, epoxidized oils, dialkyl diesters, aromatic diesters, alkyl ether monoester, polybutenes, phthalates, benzoates, adipic esters and is contained in an amount of 1 to 30 wt.-%, based on the total weight of the adhesive; and wherein the polymer further comprises a propylene copolymer as flexibilizer, having a heat of fusion less than 15 J/g, and wherein the flexibilizer is present in amounts less than the non-metallocene catalyzed polymer. wherein the polymer comprises a non-metallocene catalyzed polymer degraded with peroxide and/or heat; and wherein the non-metallocene catalyzed polymer is a semicrystalline polypropylene homo- or copolymer with a heat of fusion greater than 20 J/g measured in accordance with ASTM D3418-12; wherein the adhesive has a tan δ value of greater than 30 at the adhesive application temperature (the tan δ being calculated by ARES M Rheometer using the temperature ramp method (ARES LS) by placing a sample between parallel plates (25 mm geometry diameter) with a 2 mm gap, testing dynamic temperature sweep from 160°C to 0°C with a frequency of 10 rad/sec and cooling rate of 5°C/minute and calculating the ratio of the storage modulus (G') and the loss modulus (G") (G"/G') to obtain the tan δ value); wherein the amount of tackifier is less than the amount of the polymer in the adhesive; and wherein the plasticizer is selected from the group consisting of paraffinic oil, naphthenic oil, aromatic oil, long chain partial ether ester, alkyl monoesters, epoxidized oils, dialkyl diesters, aromatic diesters, alkyl ether monoester, polybutenes, phthalates, benzoates, adipic esters and is contained in an amount of 1 to 30 wt.-%, based on the total weight of the adhesive; and wherein the polymer further comprises a propylene copolymer as flexibilizer, having a heat of fusion less than 15 J/g, and wherein the flexibilizer is present in amounts less than the non-metallocene catalyzed polymer.
A method in a wireless device (104 1, 104 2, 104 3...104 n) which is configured to interact with a wireless access node (102 1 and 102 2), the method characterized by: transmitting, to the wireless access node, an 11-bit Enhanced General Packet Radio Service, EGPRS, packet channel request message (400, 500) which comprises a three bit Short Access Request code point "100" (402, 502) and eight bits (404, 504, 506, 508, 510) thereafter where at least a portion of the eight bits is used to indicate at least one capability of the wireless device.
A balustrade or facade consisting of at least three devices, of at least one panel, in particular a pane of safety glass, and of a base on which the devices are positioned with a gap in between them and by means of which the panel is anchored onto the base at individual areas, in which the panel is configured in its lengthways direction with corrugations and/or with a concave or convex curvature or a dome shape, spherical or parabolic, characterised in that, each of the devices, of which there are at least three, has two flexibly elastic holding rails and an elastic connecting body, in which case a flexibly elastic holding rail is anchored on the two opposite outsides of the panel and the holding rail absorbs and supports the forces acting on the panel and reproduces the outer contour of the panel due to its attachment to the panel and is connected to an elastic connecting body arranged in the area of the free end face of the panel and they jointly form a U-section in their cross section into which the panel is inserted and secured by means of an adhesive, and that the panel, the holding rails and the connecting body are inserted into a U-shaped profile rail fixed into the base or in a U-shaped holding chamber worked into the base and is supported in this by the connecting piece and the holding rails at right angles or parallel to the crossways direction of the panel.
A microelectronic sensor device, comprising: a) a sample chamber defining a cavity; b) a sensing array with a plurality of sensor elements for sensing properties of a sample in the sample chamber; c) a heating array with a plurality of heating elements for exchanging heat with at least a sub-region of the sample chamber when being driven with electrical energy; d) a control unit (CU, CU1, CU2) for selectively driving the heating elements during or prior to the sensing of a sample in the sample chamber, characterized in that the heating array and the sensing array are disposed on opposite sides of the sample chamber. a) a sample chamber defining a cavity; b) a sensing array with a plurality of sensor elements for sensing properties of a sample in the sample chamber; c) a heating array with a plurality of heating elements for exchanging heat with at least a sub-region of the sample chamber when being driven with electrical energy; d) a control unit (CU, CU1, CU2) for selectively driving the heating elements during or prior to the sensing of a sample in the sample chamber,
A method of stabilising a nitrate-based explosive used in elevated temperature or reactive ground, the method comprising the step of scavenging NOx species formed in the explosive in the elevated temperature or reactive ground in order to remove NOx as a catalyst or reagent for any subsequent chemical reaction; wherein the nitrate-based explosive comprises an oil phase, and the method further comprises the step of providing particles of a NOx scavenger in the oil phase of the explosive prior to use; further comprising the step of hydrophobising the particles of the NOx scavenger to assist in dispersing the particles in the oil phase. wherein the nitrate-based explosive comprises an oil phase, and the method further comprises the step of providing particles of a NOx scavenger in the oil phase of the explosive prior to use; further comprising the step of hydrophobising the particles of the NOx scavenger to assist in dispersing the particles in the oil phase.
An actuator, comprising: a motor, comprising a housing, a motor stator and a motor rotor, wherein the motor stator is disposed to the housing, the motor rotor is rotatably connected to the housing, and the motor rotor covers the motor stator; a position encoder, disposed to the motor rotor; a reducer, connected to the motor rotor, and configured to adjust a rotation speed output from the motor rotor; and a motor driver, disposed on the housing, and electrically connected to the motor; characterized in that the motor driver comprises an external interface, an external interface board and a drive board, wherein the drive board overlaps the external interface board and is electrically connected to the external interface, the drive board is electrically connected to the motor stator, and the external interface is disposed on a surface of the external interface board away from the drive board. a motor, comprising a housing, a motor stator and a motor rotor, wherein the motor stator is disposed to the housing, the motor rotor is rotatably connected to the housing, and the motor rotor covers the motor stator; a position encoder, disposed to the motor rotor; a reducer, connected to the motor rotor, and configured to adjust a rotation speed output from the motor rotor; and a motor driver, disposed on the housing, and electrically connected to the motor; characterized in that the motor driver comprises an external interface, an external interface board and a drive board, wherein the drive board overlaps the external interface board and is electrically connected to the external interface, the drive board is electrically connected to the motor stator, and the external interface is disposed on a surface of the external interface board away from the drive board.
A foldable keyboard comprising: an upper housing having a recess formed therein having an outer face, and having at least two rows of keys; a lower housing having at least two rows of keys; a spine member configured for pivotally connecting the upper and lower housings along a horizontal axis defined by the upper and lower housings; a hinge mechanism provided in the spine member and configured for enabling movement of the upper housing relative to the lower housing to move the keyboard between a closed configuration and an open configuration; and a stand mechanism that includes a stand pivotally connected to the upper housing and received within the recess in the upper housing when the keyboard is in the closed configuration, the stand configured to be pivoted relative to the upper housing from a first position to a second position as the keyboard moves from the closed configuration to the open configuration such that when the keyboard is in the open configuration the stand defines an angle with the upper housing outer face which enables it to contact a surface such that the at least two rows of keys of the upper housing are supported, thereby preventing the keyboard from toppling or tipping during use. an upper housing having a recess formed therein having an outer face, and having at least two rows of keys; a lower housing having at least two rows of keys; a spine member configured for pivotally connecting the upper and lower housings along a horizontal axis defined by the upper and lower housings; a hinge mechanism provided in the spine member and configured for enabling movement of the upper housing relative to the lower housing to move the keyboard between a closed configuration and an open configuration; and a stand mechanism that includes a stand pivotally connected to the upper housing and received within the recess in the upper housing when the keyboard is in the closed configuration, the stand configured to be pivoted relative to the upper housing from a first position to a second position as the keyboard moves from the closed configuration to the open configuration such that when the keyboard is in the open configuration the stand defines an angle with the upper housing outer face which enables it to contact a surface such that the at least two rows of keys of the upper housing are supported, thereby preventing the keyboard from toppling or tipping during use.
High-voltage direct current transmission path, comprising at least one or two or more lines, wherein at least one tapping/feeding point (P1 to Pz) is provided along at least one of the lines, characterised in that - at at least one tapping/feeding point (P1 to Pz) at least one group (Gy to Gy+z) of electrolytic cell stacks (EZ1 to EZm) can be connected directly by means of a thyristor switching arrangement, - wherein the thyristor switching arrangement of each group (Gy to Gy+z) of electrolytic cell stacks (EZ1 to EZm) comprises a power thyristor, a bypass thyristor and an emergency shutoff element switched in parallel to the power thyristor in a bypass line. - at at least one tapping/feeding point (P1 to Pz) at least one group (Gy to Gy+z) of electrolytic cell stacks (EZ1 to EZm) can be connected directly by means of a thyristor switching arrangement, - wherein the thyristor switching arrangement of each group (Gy to Gy+z) of electrolytic cell stacks (EZ1 to EZm) comprises a power thyristor, a bypass thyristor and an emergency shutoff element switched in parallel to the power thyristor in a bypass line.
A chloroprene rubber composition comprising: a chloroprene rubber at least containing a xanthogen-modified chloroprene rubber and/or a mercaptan-modified chloroprene rubber in an amount of 100 parts by mass; a carbon black having a number-average particle diameter of 70 nm to 600 nm and a DBP oil absorption, as determined by the Oil Absorption A method of JIS-K6221, of 15 ml/100g to 60 ml/100g in an amount of 15 to 150 parts by mass; and a plasticizer represented by the following Chemical Formula in an amount of 3 to 30 parts by mass: [C.1] R 1 COO-(CH 2) 8 -COOR 2 (wherein, R 1 and R 2 each represent an alkyl group having a carbon number of 1 to 7). a chloroprene rubber at least containing a xanthogen-modified chloroprene rubber and/or a mercaptan-modified chloroprene rubber in an amount of 100 parts by mass; a carbon black having a number-average particle diameter of 70 nm to 600 nm and a DBP oil absorption, as determined by the Oil Absorption A method of JIS-K6221, of 15 ml/100g to 60 ml/100g in an amount of 15 to 150 parts by mass; and a plasticizer represented by the following Chemical Formula in an amount of 3 to 30 parts by mass: [C.1] R 1 COO-(CH 2) 8 -COOR 2 (wherein, R 1 and R 2 each represent an alkyl group having a carbon number of 1 to 7). [C.1] R 1 COO-(CH 2) 8 -COOR 2 (wherein, R 1 and R 2 each represent an alkyl group having a carbon number of 1 to 7).
A process for applying an abrasion resistant material to a rotor of an aircraft, the rotor having a tip, a root, a leading edge, a trailing edge, a surface disposed between the tip and the root, and a chord length extending linearly from the leading edge to the trailing edge, the process comprising: preparing the surface of the rotor for receiving the abrasion resistant material; preparing a first coat of the abrasion resistant material, the first coat being composed of an elastomeric abrasion resistant material; spraying the first coat onto the surface of the rotor; preparing an intermediary coat being composed of the elastomeric abrasion resistant material and a metallic abrasion resistant material; spraying the intermediary coat on the first coat; preparing a second coat of the abrasion resistant material, the second coat being composed of a metallic abrasion resistant material; and spraying the second coat onto the intermediary coat; characterised in that the intermediary coat includes a plurality of abrasion resistant layers that transition from a smaller percentage part per volume of the elastomeric material to a larger percentage part per volume of the metallic material. preparing the surface of the rotor for receiving the abrasion resistant material; preparing a first coat of the abrasion resistant material, the first coat being composed of an elastomeric abrasion resistant material; spraying the first coat onto the surface of the rotor; preparing an intermediary coat being composed of the elastomeric abrasion resistant material and a metallic abrasion resistant material; spraying the intermediary coat on the first coat; preparing a second coat of the abrasion resistant material, the second coat being composed of a metallic abrasion resistant material; and spraying the second coat onto the intermediary coat; characterised in that the intermediary coat includes a plurality of abrasion resistant layers that transition from a smaller percentage part per volume of the elastomeric material to a larger percentage part per volume of the metallic material.
Method for the detection of the presence of one or more hrHPV types, selected from the group consisting of HPV type 16, 18, 31, 33, 35, 39, 45, 51, 52, 56, 58, 59, 66, 67 and 68 comprising the steps of: (a) providing a sample suspected of harbouring said hrHPVs; (b) providing a plurality of forward and backward primers comprising the primers of Figure 1, (c) performing a reaction to amplify DNA derived from the said sample using said plurality of primers; and (d) detecting DNA amplification products from one or more of said hrHPVs from said sample preferably wherein step (d) is carried out by hybridising the reaction products of the said DNA amplification reaction to a plurality of hrHPV probes. (a) providing a sample suspected of harbouring said hrHPVs; (b) providing a plurality of forward and backward primers comprising the primers of Figure 1, (c) performing a reaction to amplify DNA derived from the said sample using said plurality of primers; and (d) detecting DNA amplification products from one or more of said hrHPVs from said sample