mhurhangee/ep-ind-claims huggingface dataset:
An absolute angle sensor equipped bearing assembly comprising: a sensor equipped bearing having a rotation detector capable of providing, as a detection output indicative of a rotation angle of a rotating raceway ring relative to a stationary raceway ring, two analog outputs that are offset 90° in phase relative to each other in terms of electrical degree; and a correction data storing device, which stores a correction data for correcting an error when an absolute angle of the rotation angle of the rotating raceway ring is calculated based on the two analog outputs, and which is used paired with the sensor equipped bearing, wherein the rotation detector includes a to-be-detected element fitted to the rotating raceway ring and having a magnetic characteristic cyclically varying in a circumferential direction, and two magnetic sensors fitted to the stationary raceway ring in face-to-face relation with the to-be-detected element and capable of providing respective analog outputs offset 90° in phase relative to each other in terms of electrical degree, the correction data storing device includes a divider and a corrector, the corrector includes a correction processing unit and a calculation table, and the calculation table stores a calculated output from the divider and an absolute angle, which is a result value of an arc tangent calculation based on the calculated output, in coordination with each other, the absolute angle stored therein being a corrected value, and the correction data being based on an angle correction data measured after the manufacture of the sensor equipped bearing. a sensor equipped bearing having a rotation detector capable of providing, as a detection output indicative of a rotation angle of a rotating raceway ring relative to a stationary raceway ring, two analog outputs that are offset 90° in phase relative to each other in terms of electrical degree; and a correction data storing device, which stores a correction data for correcting an error when an absolute angle of the rotation angle of the rotating raceway ring is calculated based on the two analog outputs, and which is used paired with the sensor equipped bearing, wherein the rotation detector includes a to-be-detected element fitted to the rotating raceway ring and having a magnetic characteristic cyclically varying in a circumferential direction, and two magnetic sensors fitted to the stationary raceway ring in face-to-face relation with the to-be-detected element and capable of providing respective analog outputs offset 90° in phase relative to each other in terms of electrical degree, the correction data storing device includes a divider and a corrector, the corrector includes a correction processing unit and a calculation table, and the calculation table stores a calculated output from the divider and an absolute angle, which is a result value of an arc tangent calculation based on the calculated output, in coordination with each other, the absolute angle stored therein being a corrected value, and the correction data being based on an angle correction data measured after the manufacture of the sensor equipped bearing.
Process for encapsulating at least one microelectronic device (102.1, 102.2), comprising at least the following steps: - make the microelectronic device (102.1, 102.2) on a first substrate; - make at least one portion (118.1, 118.2) of a first material not permeable to the ambient atmosphere and permeable to at least one noble gas in a second substrate not permeable to the ambient atmosphere and to the noble gas, said portion (118.1, 118.2) of the first material extending from a first face of the second substrate as far as another face of the second substrate opposite the first face; - secure the second substrate to the first substrate, forming at least one cavity (120.1, 120.2) inside which the microelectronic device (102.1, 102.3) is encapsulated such that said portion (118.1, 118.2) of the first material forms at least part of a wall of the cavity (120.1, 120.2); - inject the noble gas into the cavity (120.1, 120.2) through the portion (118.1, 118.2) of the first material; - hermetically seal the cavity (120.1, 120.2) towards the ambient atmosphere and the noble gas; the gas or gases of the ambient atmosphere being different from the noble gas. - make the microelectronic device (102.1, 102.2) on a first substrate; - make at least one portion (118.1, 118.2) of a first material not permeable to the ambient atmosphere and permeable to at least one noble gas in a second substrate not permeable to the ambient atmosphere and to the noble gas, said portion (118.1, 118.2) of the first material extending from a first face of the second substrate as far as another face of the second substrate opposite the first face; - secure the second substrate to the first substrate, forming at least one cavity (120.1, 120.2) inside which the microelectronic device (102.1, 102.3) is encapsulated such that said portion (118.1, 118.2) of the first material forms at least part of a wall of the cavity (120.1, 120.2); - inject the noble gas into the cavity (120.1, 120.2) through the portion (118.1, 118.2) of the first material; - hermetically seal the cavity (120.1, 120.2) towards the ambient atmosphere and the noble gas; the gas or gases of the ambient atmosphere being different from the noble gas.
A method for producing an ester comprising: oxidatively cleaving, by oxidative ozonolysis in the absence of a solvent, unsaturated fatty acids or fatty acid amides derived from a biobased oil so that substantially all carbon-carbon double bonds are converted to carboxylic acid groups to form a mixture of diacids and monoacids; and characterized in that the method further comprises esterifying the mixture of diacids and monoacids with a polyol to form a mixture of product polyols or with a monoalcohol to form a mixture of carboxylic acid alkyl esters, wherein the mixture of diacids and monoacids is not fractionated prior to esterifying the mixture.
A mobile wireless communications device comprising: a plurality of antennas (33, 34) having different antenna element structures; a plurality of wireless transceivers (31, 32); a plurality of loads (35a, 35b, 36a, 36b) comprising a first set (35a, 35b) and a second set (36a, 36b) of loads, each set being associated with a respective antenna (33, 34) and each set comprising a first load (35a, 36a) and a second load (35b, 36b); signal processing circuitry; and a controller adapted to selectively switch said signal processing circuitry to a desired one of said wireless transceivers, selectively switch a desired one of said antennas to the desired one of said wireless transceivers, and selectively switch a different one of said antennas to at least one of said loads of the associated set. a plurality of antennas (33, 34) having different antenna element structures; a plurality of wireless transceivers (31, 32); a plurality of loads (35a, 35b, 36a, 36b) comprising a first set (35a, 35b) and a second set (36a, 36b) of loads, each set being associated with a respective antenna (33, 34) and each set comprising a first load (35a, 36a) and a second load (35b, 36b); signal processing circuitry; and a controller adapted to selectively switch said signal processing circuitry to a desired one of said wireless transceivers, selectively switch a desired one of said antennas to the desired one of said wireless transceivers, and selectively switch a different one of said antennas to at least one of said loads of the associated set.
A method for generating simulation data to be used in training a machine learning model of an autonomous vehicle, the method comprising: receiving logged data that includes sensor data obtained from at least one sensor of the autonomous vehicle; generating augmented data from the logged data, the augmented data describing an actor (704; 902; 904) in an environment of the autonomous vehicle, the actor having an associated actor type and an actor motion behavior characteristic; generating a simulation scenario as the simulation data, the simulation scenario generated from the augmented data; executing a simulation based on the simulation scenario to generate a simulated output; providing the simulation scenario as a training input to the machine learning model to generate a predicted output of the machine learning model; and updating one or more weights in the machine learning model based on a difference between the predicted output and the simulated output of the simulation scenario. receiving logged data that includes sensor data obtained from at least one sensor of the autonomous vehicle; generating augmented data from the logged data, the augmented data describing an actor (704; 902; 904) in an environment of the autonomous vehicle, the actor having an associated actor type and an actor motion behavior characteristic; generating a simulation scenario as the simulation data, the simulation scenario generated from the augmented data; executing a simulation based on the simulation scenario to generate a simulated output; providing the simulation scenario as a training input to the machine learning model to generate a predicted output of the machine learning model; and updating one or more weights in the machine learning model based on a difference between the predicted output and the simulated output of the simulation scenario.
Heating apparatus for metal products, able to heat selectively and with the desired heat power one or more edges of said metal product by means of electromagnetic induction, said heating apparatus comprising a magnetic core having a through aperture and at least four polar extensions disposed at equal angles along the perimeter of said through aperture, characterized in that said polar extensions are located on the same lying plane where all the upper ends or all the lower ends of the polar extensions lie, and are connected with each other by connection portions, each of said polar extensions being provided with a corresponding electric coil connected to an independent electric power source able to define on each occasion at least the polarity, frequency and power delivered by said polar extension.
Domestic appliance, in particular a domestic refrigeration appliance, comprising a compressor having compressor feet (14, 15), which is supported on a support rail (13, 44) by way of elastic damping bodies (16, 17, 18) that are arranged in openings of the compressor feet (14, 15), and which is held to said support rail (13, 44) by way of retaining tabs (20, 21, 42, 43, 45, 46, 47) penetrating the damping bodies (16, 17, 18) from below and having securing portions (24, 25) engaging the damping bodies (16, 17, 18) from behind, characterised in that end portions (22, 23) of the retaining tabs (20, 21, 42, 43, 45, 46, 47) projecting over the damping bodies (16, 17, 18) have insertion means which are designed such that the compressor is or can be installed without any plastic deformation of the retaining tabs (20, 21, 42, 43, 45, 46, 47), wherein the damping bodies are elastically deformed during the installation of the compressor such that they can be pushed over the securing portion of the retaining tabs, and wherein the securing portions (24, 25) project over edge regions of the openings in a plan view of the openings of the compressor feet (14, 15).
A coupling piece for coupling to a first pipe piece, the coupling piece comprising: - an elongated body having an opening at at least one end for receiving a pipe end of the first pipe piece, the elongated body comprising an interior wall having a first diameter, provided with an annular chamber spaced from the end of the coupling piece and bounded by a first abutment wall at a distance other than zero from the opening, which chamber comprises a first chamber portion and a second chamber portion, the first chamber portion having a second diameter and extending from the first abutment wall in the direction of the opening, the second chamber portion having a third diameter and extending from the first chamber portion in the direction of the opening, with the third diameter decreasing in the direction of the opening, and wherein it holds that the first diameter is smaller or equal to the third diameter and the third diameter is smaller or equal to the second diameter (D1 ≤ D3 ≤ D2); - a first grip ring inside the chamber provided with at least two arc segments (62, 64), which arc segments together form at least a part of a circle, and - a second grip ring inside the chamber adapted to press the first grip ring in a radial direction against a chamber interior wall of the second chamber portion of the chamber, wherein the second grip ring is provided with a radially oriented toothing which extends over at least a part along an inner circumference of the second grip ring. - an elongated body having an opening at at least one end for receiving a pipe end of the first pipe piece, the elongated body comprising an interior wall having a first diameter, provided with an annular chamber spaced from the end of the coupling piece and bounded by a first abutment wall at a distance other than zero from the opening, which chamber comprises a first chamber portion and a second chamber portion, the first chamber portion having a second diameter and extending from the first abutment wall in the direction of the opening, the second chamber portion having a third diameter and extending from the first chamber portion in the direction of the opening, with the third diameter decreasing in the direction of the opening, and wherein it holds that the first diameter is smaller or equal to the third diameter and the third diameter is smaller or equal to the second diameter (D1 ≤ D3 ≤ D2); - a first grip ring inside the chamber provided with at least two arc segments (62, 64), which arc segments together form at least a part of a circle, and - a second grip ring inside the chamber adapted to press the first grip ring in a radial direction against a chamber interior wall of the second chamber portion of the chamber,
A method for securing content (23,27) to be used by a device comprising: preparing an encrypted image (23a,27a) by encrypting at least a portion of said content such that said portion can be recovered by decrypting said encrypted image using a key; storing said encrypted image on said device; obtaining information (HWSN) unique to said device, said information unique to said device being readable from the device by a boot program (PBBA) operating on said device; generating a signature using said information unique to said device to bind said encrypted image to said device, said signature encrypting said key such that said key is recoverable from said signature using said information unique to said device; and storing said signature on said device to enable said device to recover said key from said signature by determining said information unique to said device and providing said information unique to said device as an input to a signature verification function (Fig. 6), an output of said signature verification function corresponding to said key thereby enabling said device to decrypt said encrypted image to obtain said portion. preparing an encrypted image (23a,27a) by encrypting at least a portion of said content such that said portion can be recovered by decrypting said encrypted image using a key; storing said encrypted image on said device; obtaining information (HWSN) unique to said device, said information unique to said device being readable from the device by a boot program (PBBA) operating on said device; generating a signature using said information unique to said device to bind said encrypted image to said device, said signature encrypting said key such that said key is recoverable from said signature using said information unique to said device; and storing said signature on said device to enable said device to recover said key from said signature by determining said information unique to said device and providing said information unique to said device as an input to a signature verification function (Fig. 6), an output of said signature verification function corresponding to said key thereby enabling said device to decrypt said encrypted image to obtain said portion.
An image forming apparatus for creating an image on a recording medium comprising: count means (802, 803) configured to count, among a plurality of pixels in image data for creating the image, an edge count that is the number of pixels whose relationship with an adjacent pixel satisfies a predetermined edge condition and a pixel count that is the number of pixels having a density greater than or equal to a predetermined density; characterized by determination means for determining information related to a type of the image based on the edge count and the pixel count; and calculation means configured to calculate a toner consumption amount based on the information related to the type of the image and the pixel count. count means (802, 803) configured to count, among a plurality of pixels in image data for creating the image, an edge count that is the number of pixels whose relationship with an adjacent pixel satisfies a predetermined edge condition and a pixel count that is the number of pixels having a density greater than or equal to a predetermined density; characterized by determination means for determining information related to a type of the image based on the edge count and the pixel count; and calculation means configured to calculate a toner consumption amount based on the information related to the type of the image and the pixel count.
A fluid jet cutting system, comprising: a fluid jet cutting head having an orifice to generate a high pressure fluid jet and a fluid jet outlet from which to discharge the high pressure fluid jet; a jet receiving receptacle to receive the high pressure fluid jet after the high pressure fluid jet passes through the workpiece during a workpiece processing operation; and a support structure to support the jet receiving receptacle, the support structure including a drive system (350, 352, 370) to selectively adjust at least one of a lateral position of the jet receiving receptacle and an angular orientation of the jet receiving receptacle relative to an axis defined by the fluid jet outlet of the fluid jet cutting head. a fluid jet cutting head having an orifice to generate a high pressure fluid jet and a fluid jet outlet from which to discharge the high pressure fluid jet; a jet receiving receptacle to receive the high pressure fluid jet after the high pressure fluid jet passes through the workpiece during a workpiece processing operation; and a support structure to support the jet receiving receptacle, the support structure including a drive system (350, 352, 370) to selectively adjust at least one of a lateral position of the jet receiving receptacle and an angular orientation of the jet receiving receptacle relative to an axis defined by the fluid jet outlet of the fluid jet cutting head.
A printing apparatus comprising: a base unit that can move in a moving direction; a medium support unit configured to support a medium on which printing is to be performed and to move in the moving direction along with the base unit by being attached to the base unit; a printing unit that can print an image on the medium; and a housing unit that houses the printing unit and has an opening portion through which the medium support unit can move forward into the housing unit and backward out of the housing unit on one side in the moving direction, wherein the base unit has a stage and a lower rail and the medium support unit is fixed to an installation table including an upper rail which slides with respect to the lower rail such that, when a position of the medium support unit with respect to the base unit during printing is defined as a base position, the medium support unit is slidable with respect to the base unit from the base position in the moving direction, wherein when the medium support unit is located at the base position in a state in which the base unit is moved most to the outer side of the housing unit, at least a part of the medium support unit is located inside the housing unit with respect to the opening portion, and wherein when the medium support unit is slid from the base position in a state in which the base unit is moved most to the outer side of the housing unit, the part that was located inside the housing unit is exposed to outside of the housing unit. a base unit that can move in a moving direction; a medium support unit configured to support a medium on which printing is to be performed and to move in the moving direction along with the base unit by being attached to the base unit; a printing unit that can print an image on the medium; and a housing unit that houses the printing unit and has an opening portion through which the medium support unit can move forward into the housing unit and backward out of the housing unit on one side in the moving direction, wherein the base unit has a stage and a lower rail and the medium support unit is fixed to an installation table including an upper rail which slides with respect to the lower rail such that, when a position of the medium support unit with respect to the base unit during printing is defined as a base position, the medium support unit is slidable with respect to the base unit from the base position in the moving direction, wherein when the medium support unit is located at the base position in a state in which the base unit is moved most to the outer side of the housing unit, at least a part of the medium support unit is located inside the housing unit with respect to the opening portion, and wherein when the medium support unit is slid from the base position in a state in which the base unit is moved most to the outer side of the housing unit, the part that was located inside the housing unit is exposed to outside of the housing unit.
Method for terminating optical radiation, in particular laser radiation, in which the optical radiation (l) is directed towards an absorption body which has an entry surface for the optical radiation and absorbs the optical radiation (l), wherein the absorption body is selected from a crystalline material with an imaginary refractive index for the optical radiation that is to be absorbed, characterized in that the imaginary refractive index causes an absorption length of the optical radiation of > 1 mm in the absorption body, wherein the absorption body is selected from a crystalline material which emits fluorescence radiation upon absorption of the optical radiation (l), and wherein one or more surfaces of the absorption body is/are furnished with a coating that either reflects or absorbs the fluorescence radiation to prevent or at least reduce the escape of the fluorescence radiation from the absorption body.