mhurhangee/ep-ind-claims huggingface dataset:
Method for dyeing a shaped part produced in a 3D printing process with a polymer, wherein the method comprises - a dyeing step for dyeing the surface of the shaped part with a dye, and - a first post-treatment step for fixing the dye which has penetrated the surface of the shaped part, wherein the first post-treatment step is carried out after the dyeing step, wherein, in the dyeing step, - the shaped part is placed in a dye solution, wherein the dye solution comprises - a dye, and - water, preferably deionized water, wherein the dye is introduced into the material of the surface of the shaped part, and - the dye solution is heated, and, in the first post-treatment step, - the shaped part dyed in the dyeing step is placed in a first fixing solution, as a result of which the dye introduced into the material of the surface of the shaped part is fixed, wherein the first fixing solution comprises - a polyphenol, an acrylic-based syntan compound, or a synthetic condensation product of aromatic compounds, in particular phenols or naphthalenesulfonic acid, with formaldehyde or urea, and - water, preferably deionized water, and - the first fixing solution is heated. - a dyeing step for dyeing the surface of the shaped part with a dye, and - a first post-treatment step for fixing the dye which has penetrated the surface of the shaped part, wherein the first post-treatment step is carried out after the dyeing step, wherein, in the dyeing step, - the shaped part is placed in a dye solution, wherein the dye solution comprises - a dye, and - water, preferably deionized water, wherein the dye is introduced into the material of the surface of the shaped part, and - the dye solution is heated, and, in the first post-treatment step, - the shaped part dyed in the dyeing step is placed in a first fixing solution, as a result of which the dye introduced into the material of the surface of the shaped part is fixed, wherein the first fixing solution comprises - a polyphenol, an acrylic-based syntan compound, or a synthetic condensation product of aromatic compounds, in particular phenols or naphthalenesulfonic acid, with formaldehyde or urea, and - water, preferably deionized water, and - the first fixing solution is heated.
A system comprising: a fluid conduit having a plurality of conduit supports; a fluid nozzle for use in injectors for gas turbine engines, having a plurality of nozzle supports, the fluid nozzle being connected to the fluid conduit; and a heat shield having a plurality of apertures, the heat shield surrounding both the fluid conduit and the fluid nozzle such that the conduit supports and the nozzle supports extend through the apertures; characterized in that at least some of the apertures through the heat shield are elongated to accommodate relative thermal expansion/contraction between the fluid conduit and the heat shield. a fluid conduit having a plurality of conduit supports; a fluid nozzle for use in injectors for gas turbine engines, having a plurality of nozzle supports, the fluid nozzle being connected to the fluid conduit; and a heat shield having a plurality of apertures, the heat shield surrounding both the fluid conduit and the fluid nozzle such that the conduit supports and the nozzle supports extend through the apertures; characterized in that at least some of the apertures through the heat shield are elongated to accommodate relative thermal expansion/contraction between the fluid conduit and the heat shield.
A method for processing data, implemented by a smart device located in a local area network, LAN, and comprising a first microcontroller unit, MCU, wherein the smart device is provided with a Wireless Fidelity, Wi-Fi, module, said module comprising a Wi-Fi chip and a second MCU configured to communicate with the first MCU and other devices via the Wi-Fi chip, the method comprising: receiving, at the Wi-Fi chip, a control command sent from a terminal; converting, at the second MCU in an defined protocol format, the control command into a binary coded string identifiable by the first MCU; sending, at the second MCU, the binary coded string to the first MCU through a serial port, causing the first MCU to execute a corresponding function to realize control of the smart device by the terminal; acquiring, at the second MCU, data streams transmitted between the second MCU and the first MCU; packing, at the second MCU, the acquired data streams into data packets; adding, at the second MCU, respective serial numbers to the data packets; and sending the data packets added with the respective serial numbers to the terminal in the LAN in a wireless communication manner. receiving, at the Wi-Fi chip, a control command sent from a terminal; converting, at the second MCU in an defined protocol format, the control command into a binary coded string identifiable by the first MCU; sending, at the second MCU, the binary coded string to the first MCU through a serial port, causing the first MCU to execute a corresponding function to realize control of the smart device by the terminal; acquiring, at the second MCU, data streams transmitted between the second MCU and the first MCU; packing, at the second MCU, the acquired data streams into data packets; adding, at the second MCU, respective serial numbers to the data packets; and sending the data packets added with the respective serial numbers to the terminal in the LAN in a wireless communication manner.
Device for laterally positioning a plate element (20, 20'), in a plate element processing machine, characterised in that it comprises a detector lever, articulated with respect to a horizonal axis, and capable of carrying out a descent movement from a high position to a low position, a first end of the detector lever being arranged to come into a low position in contact with an upper face of the plate element (20, 20'), and a second end of the detector lever being provided with a target engaging with a position detector to generate a signal depending on the thickness of the plate element (20, 20') and on the number of plate elements (20, 20') present at the level of the first end of the detector lever.
An immunogen comprising at least one antigenic PCSK9 peptide linked to an immunogenic carrier, wherein the antigenic PCSK9 peptide is selected from the group consisting of SEQ ID Nos 182 to 226 or 330 to 359 and wherein said immunogenic carrier is selected from Diphtheria Toxoid, CRM197 or a VLP selected from HBcAg, HBsAg, Qbeta, PP7, PPV or Norwalk Virus VLP.
Linear actuating drive with a housing, comprising at least two parts (10a, b) that houses at least one worm gear with a worm shaft and a worm wheel that are part of a gear train, and a motor that drives the worm shaft and a spindle connected with the worm wheel and a spindle nut, wherein the actuating drive has a bearing for the spindle and the spindle nut is supported by the spindle and secured against rotation and the housing is provided with a recess that receives an adjusting shaft, characterized in that the housing is connected, at least on one of its two sides, with a reinforcement made of a stronger material that is configured as a flat support and the reinforcement is positively connected to the housing and extends in longitudinal direction of the housing, wherein the support at least partially encompasses the recess of the housing that houses the adjusting shaft (129, 229), wherein the at least one side of the housing that is provided with the support is provided with a mount (36, 36a, b) corresponding to the contour of the support, and the mount is configured as a projecting collar, the dimensions of which perpendicularly to the housing surface that houses the support preferably correspond to the thickness of the support, wherein the carrying support that is associated to a first housing side comprises at least one angled extension and the configuration of the reinforcement thus formed with a profiled shape is adapted to the shape of the housing in such a manner that the angled extension covers a second surface region of the housing that is correspondingly angled to the first surface region of the housing and the frontal ends of the angled extension are bent in such a manner that, the support being in mounted condition, they each engage behind a correspondingly positioned surface of the housing.
An immersion type membrane separation device comprising: a membrane module case including a plurality of membrane modules; a diffuser case positioned under the membrane module case, the diffuser case including a diffuser; and a supply unit for supplying air to the diffuser, the supply unit including a pipe connected to the diffuser, wherein air is supplied to the diffuser through the pipe, wherein the plurality of membrane modules include a first membrane module and a second membrane module, each module including a membrane part and a frame for fixing the membrane part 210, wherein a plurality of protrusions (230; 271, 281) are positioned on one surface of each of the first and second membrane modules (270, 280), and a plurality of grooves (240; 272, 282) are positioned on the opposite surface of each of the first and second membrane modules (270, 280), wherein the plurality of protrusions of one of the first and second membrane modules are respectively fitted into the plurality of grooves of the other of the first and second membrane modules, and thus the first and second membrane modules (270, 280) are combined with each other, wherein the plurality of protrusions (230; 271, 281) and the plurality of grooves (240; 272, 282) are positioned on the frame of each of the first and second membrane modules (200; 270, 280), and characterised in that the base portion of each of the protrusions (230; 271, 281) has an inclined surface, and the end portion of each of the protrusions (230; 271, 281) has a sphere shape. a membrane module case including a plurality of membrane modules; a diffuser case positioned under the membrane module case, the diffuser case including a diffuser; and a supply unit for supplying air to the diffuser, the supply unit including a pipe connected to the diffuser,
A power-saving notification circuit for a handheld computing device, comprising: a notification lamp comprising a plurality of monochrome lamps (104r, 104g, 104b); a melody circuit coupled to the notification lamp for providing a first type notification by playing a melody and varying a duty cycle of or flashing the notification lamp in synchronisation to the melody; and an electronic switch coupled to the notification lamp for providing a second type notification via one of the monochrome lamps, the second type notification having a power consumption less than that of the first type notification, wherein the melody circuit includes a plurality of lamp driver outputs, each of said lamp driver outputs being coupled to a respective one of the monochrome lamps through a respective current-limiting resistor (109a, 109b, 109c), and wherein the electronic switch is connected in series with a further current limiting resistor to said one of the monochrome lamps, wherein the resistance of said further current limiting resistor is greater than the resistance of the respective current-limiting resistors. a notification lamp comprising a plurality of monochrome lamps (104r, 104g, 104b); a melody circuit coupled to the notification lamp for providing a first type notification by playing a melody and varying a duty cycle of or flashing the notification lamp in synchronisation to the melody; and an electronic switch coupled to the notification lamp for providing a second type notification via one of the monochrome lamps, the second type notification having a power consumption less than that of the first type notification, wherein the melody circuit includes a plurality of lamp driver outputs, each of said lamp driver outputs being coupled to a respective one of the monochrome lamps through a respective current-limiting resistor (109a, 109b, 109c), and wherein the electronic switch is connected in series with a further current limiting resistor to said one of the monochrome lamps, wherein the resistance of said further current limiting resistor is greater than the resistance of the respective current-limiting resistors.
A computer-implemented method for identifying at least one mechanical parameter called "target parameter" of an object subjected to a mechanical stress, characterized in that said method comprises the following steps: - Step 1: acquiring, by an imaging means, at least two images of the object taken before and during the application of the mechanical stress and measuring the scale factor of the object; - Step 2: calculating a first functional T CIN (U CIN) corresponding to the correlation of the digital images depending on the displacement field U CIN represented using a first kinematic base, said displacement field U CIN being measured at any point of the object under stress between the images of the object under load and without load; - Step 3: calculating the calculated displacement field U CAL at any point of the object; - Step 4: calculating a second functional T CAL (U CAL,{p},{q}) on the basis of the calculated displacement field U CAL represented using a second kinematic base, this second functional corresponding to the variational formulation of a mechanical model of the stress depending on the geometry of the object, the forces applied, the boundary conditions, at least the target parameter {p} and predetermined mechanical parameters {q}; - Step 5: calculating a third functional T PAR (U CIN,U CAL) in the form of a quadratic norm, equal to the difference between U CIN and U CAL; - Step 6: minimizing, with respect to U CIN, U CAL and {p}, a total functional T TOT (U CIN,U CAL,{p},{q}) comprising at least the terms: T TOT U CIN U CAL p q = α T CIN U CIN + β T CAL U CAL p q + γ T PAR U CIN U CAL - α, β and γ being three non-zero weighting coefficients. - Step 1: acquiring, by an imaging means, at least two images of the object taken before and during the application of the mechanical stress and measuring the scale factor of the object; - Step 2: calculating a first functional T CIN (U CIN) corresponding to the correlation of the digital images depending on the displacement field U CIN represented using a first kinematic base, said displacement field U CIN being measured at any point of the object under stress between the images of the object under load and without load; - Step 3: calculating the calculated displacement field U CAL at any point of the object; - Step 4: calculating a second functional T CAL (U CAL,{p},{q}) on the basis of the calculated displacement field U CAL represented using a second kinematic base, this second functional corresponding to the variational formulation of a mechanical model of the stress depending on the geometry of the object, the forces applied, the boundary conditions, at least the target parameter {p} and predetermined mechanical parameters {q}; - Step 5: calculating a third functional T PAR (U CIN,U CAL) in the form of a quadratic norm, equal to the difference between U CIN and U CAL; - Step 6: minimizing, with respect to U CIN, U CAL and {p}, a total functional T TOT (U CIN,U CAL,{p},{q}) comprising at least the terms: T TOT U CIN U CAL p q = α T CIN U CIN + β T CAL U CAL p q + γ T PAR U CIN U CAL - α, β and γ being three non-zero weighting coefficients.
An article of footwear comprising: an outsole having: a heel region, a midfoot region, and a forefoot region; a bottom portion defining a ground contact surface; a medial arch portion extending from the bottom portion on a medial side of the bottom portion; and a lateral arch portion extending from the bottom portion on a lateral side of the bottom portion; an outer midsole layer secured to the outsole and extending only over the heel region and at least some of the midfoot region; an inner midsole layer, wherein the inner midsole layer extends over the heel region, the midfoot region, and the forefoot region; characterized in that the inner midsole layer is supported by the outer midsole layer and the outsole without being fixed thereto, wherein the outer midsole layer is configured to surround a periphery of the inner midsole layer at the heel region, wherein the outsole has a plurality of spaced protrusions extending outward from the medial arch portion and from the lateral arch portion, and wherein the spaced protrusions decrease in effective diameter in a direction away from the bottom portion. an outsole having: a heel region, a midfoot region, and a forefoot region; a bottom portion defining a ground contact surface; a medial arch portion extending from the bottom portion on a medial side of the bottom portion; and a lateral arch portion extending from the bottom portion on a lateral side of the bottom portion; a heel region, a midfoot region, and a forefoot region; a bottom portion defining a ground contact surface; a medial arch portion extending from the bottom portion on a medial side of the bottom portion; and a lateral arch portion extending from the bottom portion on a lateral side of the bottom portion; an outer midsole layer secured to the outsole and extending only over the heel region and at least some of the midfoot region; an inner midsole layer, wherein the inner midsole layer extends over the heel region, the midfoot region, and the forefoot region; characterized in that the inner midsole layer is supported by the outer midsole layer and the outsole without being fixed thereto, wherein the outer midsole layer is configured to surround a periphery of the inner midsole layer at the heel region, wherein the outsole has a plurality of spaced protrusions extending outward from the medial arch portion and from the lateral arch portion, and wherein the spaced protrusions decrease in effective diameter in a direction away from the bottom portion.
A method for the three-dimensional, in particular true-to-scale, reconstruction of at least a part of a human head from a plurality of images (10 1 - 10 n) which show at least the part of the human head to be reconstructed from different perspectives, comprising the following method steps: a) applying a feature recognition (14 1 - 14 n) to the plurality of images (10 1 - 10 n), in which facial features and their coordinates are recorded, b) determining imaging parameters for the plurality of images (10 1 - 10 n), which describe the respective camera-dependent perspective projections of the plurality of images (10 1 - 10 n), c) formulating geometric restrictions for the adaptation of a three-dimensional target model based on the positions of the facial features recorded from the plurality of images (10 1 - 10 n), d) adapting the three-dimensional target model to the geometric restrictions, characterized in that, during the adaptation of the target model, data of an at least partially recorded error structure of the correspondences of the feature positions in the target model, which error structure reproduces the perspective-dependent behavior of the feature recognition, are used to decorrelate the geometric restrictions by weighting the geometric restrictions along certain directions and/or according to their statistical relationship, wherein the error structure of the correspondences of the feature positions is created a priori in the target model by analyzing the perspective-dependent behavior of the feature recognition (14 1 - 14 n) in each case at a certain view of the camera of the object based on a multiplicity of training images, for which the dimensions of the imaged human heads and an exact, computational model of the imaging are known. a) applying a feature recognition (14 1 - 14 n) to the plurality of images (10 1 - 10 n), in which facial features and their coordinates are recorded, b) determining imaging parameters for the plurality of images (10 1 - 10 n), which describe the respective camera-dependent perspective projections of the plurality of images (10 1 - 10 n), c) formulating geometric restrictions for the adaptation of a three-dimensional target model based on the positions of the facial features recorded from the plurality of images (10 1 - 10 n), d) adapting the three-dimensional target model to the geometric restrictions,
A process for producing methylcobalamin, comprising the steps of reducing cyanocobalamin or hydroxocobalamin represented by the following formula: R 2 =CN: Cyanocobalamin R 2 =OH: Hydroxocobalamin R 2 =CH 3: Methylcobalamin in the presence of sodium borohydride as a reducing agent; and then methylating the reductant by adding a trimethylsulfur derivative represented by the following formula: wherein X is a halogen atom or a methoxysulfonyloxy group, and n is 0 or 1.
Friction brake body for a friction brake of a motor vehicle, in particular a brake disk, with a base body made in particular of grey cast iron, with at least one wear protection layer applied onto the base body and at least one intermediate layer located between the wear protection layer and the base body, wherein the wear protection layer is formed as an iron-based alloy with embedded hard material particles consisting of carbides, oxides, nitrides or borides, wherein the intermediate layer is a metallic intermediate layer applied by laser deposition welding, wherein the layer thickness of the intermediate layer corresponds to at least twice the mean particle size of the hard material particles incorporated in the wear protection layer.
A photocatalyst containing a cadmium compound; wherein the photocatalyst has a capsular structure having a shell and a cavity; wherein the shell is of a stratified structure formed by an ultrafine particle layer of said cadmium compound; wherein the particle diameter of said cadmium compound is 1 to 10 nm; and wherein the average particle diameter of the photocatalyst is 100 nm or less, the average particle diameter being determined by calculating the average of the major diameters measured in an electron micrograph.
A method of determining the presence or amount of sFlt- 1: PlGF complex, a complex of the soluble form of the fms-like tyrosine kinase receptor (sFlt-1) and placenta growth factor (PlGF), the method comprising: (a) capturing the complex with capture agent that binds to PlGF, and detecting the complex with detector agent that binds to one or both of sFlt-1 and sFlt-1:PlGF complex; or (b) capturing the complex with capture agent that binds to sFlt-1, and detecting the complex with detector agent that binds to one or both of PlGF and sFlt-1:PlGF complex; or (c) capturing the complex with capture agent that binds to sFlt-1:PlGF complex, and detecting the complex with detector agent that binds to sFlt-1:PlGF complex, wherein capture agent and detector agent are capable of being bound simultaneously to the complex; or (d) capturing the complex with capture agent that binds to sFlt-1:PlGF complex, and detecting the complex with detector agent that binds to one or both of PlGF and sFlt-1. (a) capturing the complex with capture agent that binds to PlGF, and detecting the complex with detector agent that binds to one or both of sFlt-1 and sFlt-1:PlGF complex; or (b) capturing the complex with capture agent that binds to sFlt-1, and detecting the complex with detector agent that binds to one or both of PlGF and sFlt-1:PlGF complex; or (c) capturing the complex with capture agent that binds to sFlt-1:PlGF complex, and detecting the complex with detector agent that binds to sFlt-1:PlGF complex, wherein capture agent and detector agent are capable of being bound simultaneously to the complex; or (d) capturing the complex with capture agent that binds to sFlt-1:PlGF complex, and detecting the complex with detector agent that binds to one or both of PlGF and sFlt-1.