mhurhangee/ep-ind-claims huggingface dataset:
A centrifugal separator having a stationary casing and a centrifuge rotor, which is provided in the stationary casing and arranged to rotate around an axis (x) of rotation at a rotary speed and which comprises a plurality of nozzles for discharge of a product from the centrifuge rotor, wherein the centrifugal separator comprises a sensor device, which comprises a transfer element, which has a first part and a second part (21") and which is configured to be mounted in such a way that the first part is located inside the stationary casing and outside the centrifuge rotor and that the second part (21") is located outside the stationary casing, wherein at least the first part of the transfer element has an elongated shape and extends in a longitudinal direction (x'), a receiving head, which is comprised by the first part of the transfer element, a sensor element, which is mounted to the second part (21") of transfer element and which is configured to sense vibrations propagating from the receiving head to the sensor element, and an evaluation unit, which communicates with the sensor element for transmitting signals from the sensor element to the evaluation unit, characterized in that the transfer element is configured in such a way that it is movable in relation to the centrifuge rotor and the stationary casing in such a way that the position of the receiving head is adjustable along the axis (x) of rotation.
A process for the copolymerization of ethylene and 1-octene to form a copolymer by contacting a mixture comprising ethylene and 1-octene under polymerization conditions with a catalyst composition comprising a metal complex, a cocatalyst and a polymerization modifier, characterized in that, the metal complex comprises a 3-amino- substituted inden-1-yl complex of titanium; the cocatalyst comprises tris(pentafluorophenyl)boron or a trialkylammonium salt of tetrakis(pentafluorophenyl)borate; and the polymerization modifier comprises a compound selected from: the 1:1 molar reaction products of t-butanol with trioctylaluminum; the 1:1 molar reaction products of 2,6-diphenylphenol, 2,6-di(t-butyl)-4-methylphenol, phenol, or t-butyldi(methyl)hydroxysilane with triisobutylaluminum; the 2:1 molar reaction products of di(n-pentyl)amine with triisobutylaluminum; the 2:1 molar reaction products of 2,6-diphcnylphcnol or t-butyldi(methyl)-hydroxysilane with triethylaluminum; the 1:1 molar reaction products of 2,6-diphenylphenol, 2,6-di(t-butyl)-4-methylphenol, phenol, t-butanol, 1-dodecanol, t-butyldi(methyl)hydroxysilane, or p-methoxyphenol with trioctylaluminum; and the 2:1 molar reaction products of 2,6-diphenylphenol, 2,6-di(t-butyl)-4-methylphenol and t-butyldi(methyl)hydroxysilane with tri(octyl)aluminum. the 1:1 molar reaction products of t-butanol with trioctylaluminum; the 1:1 molar reaction products of 2,6-diphenylphenol, 2,6-di(t-butyl)-4-methylphenol, phenol, or t-butyldi(methyl)hydroxysilane with triisobutylaluminum; the 2:1 molar reaction products of di(n-pentyl)amine with triisobutylaluminum; the 2:1 molar reaction products of 2,6-diphcnylphcnol or t-butyldi(methyl)-hydroxysilane with triethylaluminum; the 1:1 molar reaction products of 2,6-diphenylphenol, 2,6-di(t-butyl)-4-methylphenol, phenol, t-butanol, 1-dodecanol, t-butyldi(methyl)hydroxysilane, or p-methoxyphenol with trioctylaluminum; and the 2:1 molar reaction products of 2,6-diphenylphenol, 2,6-di(t-butyl)-4-methylphenol and t-butyldi(methyl)hydroxysilane with tri(octyl)aluminum.
A method for manufacturing, or for use in manufacturing, a flexible ultrasonic transducer for imaging and non-destructive testing, the method comprising: providing a layer of piezoelectric material on a foil substrate; using one or more additive techniques to apply at least one electrode to a surface of the piezoelectric material and to apply at least one electrical conduction track and at least one electrical connector, the at least one electrical conduction track, the at least one electrical connector and/or part of the at least one electrode being applied to a layer of dielectric material provided on the surface of the piezoelectric material, wherein the electrodes are arranged in an electrode array, and respective electrical conduction tracks electrically connect a respective electrode to a respective electrical connector; wherein the additive techniques comprise at least one of: masking, deposition, photo patterning, printing or patterned coating. providing a layer of piezoelectric material on a foil substrate; using one or more additive techniques to apply at least one electrode to a surface of the piezoelectric material and to apply at least one electrical conduction track and at least one electrical connector, the at least one electrical conduction track, the at least one electrical connector and/or part of the at least one electrode being applied to a layer of dielectric material provided on the surface of the piezoelectric material, wherein the electrodes are arranged in an electrode array, and respective electrical conduction tracks electrically connect a respective electrode to a respective electrical connector; wherein the additive techniques comprise at least one of: masking, deposition, photo patterning, printing or patterned coating.
A vehicular door handle assembly for opening a vehicle door comprising: - a door grip having a forward end and a rearward end, movable from a resting position where the vehicle door is latched to an actuated position where the vehicle door is unlatched, - a chassis assembly having a forward end and a rearward end, the chassis assembly supporting, at its rearward end ∘ a bellcrank rotatably connected to the chassis and connected to the door grip, configured to pivot between an resting position and an actuated position when the door handle is actuated and, ∘ a moveable retaining element configured to retain the bellcrank in a serviceable position where the door grip can be connected to the bellcrank and to release the bellcrank to a functional position where the bellcrank can rotate between the resting position and the actuated position, the retaining element comprising a sliding member having a sliding part and at least one arm configured to cooperate with the bellcrank, the sliding member including at least one rotation stop where the bellcrank abuts in the actuated position wherein the bellcrank actuates a latch mechanism and wherein the bellcrank remain engaged with the door grip. - a door grip having a forward end and a rearward end, movable from a resting position where the vehicle door is latched to an actuated position where the vehicle door is unlatched, - a chassis assembly having a forward end and a rearward end, the chassis assembly supporting, at its rearward end ∘ a bellcrank rotatably connected to the chassis and connected to the door grip, configured to pivot between an resting position and an actuated position when the door handle is actuated and, ∘ a moveable retaining element configured to retain the bellcrank in a serviceable position where the door grip can be connected to the bellcrank and to release the bellcrank to a functional position where the bellcrank can rotate between the resting position and the actuated position, the retaining element comprising a sliding member having a sliding part and at least one arm configured to cooperate with the bellcrank, the sliding member including at least one rotation stop where the bellcrank abuts in the actuated position wherein the bellcrank actuates a latch mechanism and wherein the bellcrank remain engaged with the door grip. ∘ a bellcrank rotatably connected to the chassis and connected to the door grip, configured to pivot between an resting position and an actuated position when the door handle is actuated and, ∘ a moveable retaining element configured to retain the bellcrank in a serviceable position where the door grip can be connected to the bellcrank and to release the bellcrank to a functional position where the bellcrank can rotate between the resting position and the actuated position, the retaining element comprising a sliding member having a sliding part and at least one arm configured to cooperate with the bellcrank, the sliding member including at least one rotation stop where the bellcrank abuts in the actuated position wherein the bellcrank actuates a latch mechanism and wherein the bellcrank remain engaged with the door grip.
A power semiconductor device, comprising: an aluminum nitride single crystalline substrate, wherein the dislocation density of the substrate is less than 10 5 cm -2 and the Full Width Half Maximum (FWHM) of the double axis rocking curve for the and crystallographic planes is less than 200 arcsec; and a power semiconductor structure comprising a plurality of epitaxial doped Al x Ga 1-x N layers overlying the aluminum nitride single crystalline substrate; wherein the power semiconductor structure is in the form of a Schottky diode comprising a relatively lightly doped N-type drift region comprising one or more epitaxial Al x Ga 1-x N layers adjacent to a relatively heavily doped N+ region comprising one or more epitaxial Al x Ga 1-x N layers; wherein at least one layer of doped Al x Ga 1-x N has a value for x greater than 0.7; wherein the dislocation density of each epitaxial layer is essentially identical to the dislocation density of the substrate; and wherein the device is characterized by a breakdown field of at least 5 MV/cm. an aluminum nitride single crystalline substrate, wherein the dislocation density of the substrate is less than 10 5 cm -2 and the Full Width Half Maximum (FWHM) of the double axis rocking curve for the and crystallographic planes is less than 200 arcsec; and a power semiconductor structure comprising a plurality of epitaxial doped Al x Ga 1-x N layers overlying the aluminum nitride single crystalline substrate;
An apparatus for slicing food products, in particular a high-performance slicer, having a product feed which defines a feed plane and by means of which the products are fed along the feed plane in a feed direction to a cutting plane which is disposed in a slicing region and in which a cutting blade moves, in particular in a rotating and/or revolving manner, said cutting blade cooperating with a cutting edge which in particular extends in parallel with the feed plane and perpendicular to the feed direction to cut off slices from the products; having a detection device for radiation reflected from the slicing region and having an evaluation device for evaluating the detected radiation; and having an illumination device for illuminating the slicing region, said illumination device being arranged in the half-space disposed in front of the slicing region and above the feed plane and having at least one radiation source as well as a diaphragm arrangement which is associated therewith, characterized in that the illumination device is arranged for an at least substantially frontal illumination of the product end face; and in that the diaphragm arrangement has a plurality of light compartments or a plurality of elements of light-conducting and/or light permeable material for forming a plurality of elongate illumination radiation paths which are optically separate from one another, which each extend in the direction of the slicing region and which are arranged adjacent to one another.
A method for optically measuring a first surface portion (4, 10) of a surface of a specimen with the following steps: generating electromagnetic radiation (5, 6) with a radiation source, irradiating the first surface portion (4, 10) with the electromagnetic radiation (5, 6), sensing an intensity of the electromagnetic radiation (5, 6) reflected or scattered by the first surface portion (4, 10) with a detector, wherein the surface comprises a second surface portion (7, 14) and the first and second surface portions are arranged so as to be substantially V-shaped in relation to one another, and wherein the radiation source, the detector, the first surface portion, and the second surface portion are arranged in relation to one another such that an intensity of the electromagnetic radiation (5, 6) reflected or scattered sequentially on the first surface portion (4, 10) and on the second surface portion (7, 14) can be sensed by the detector, and arranging an aperture between the first surface portion (4, 10) and the second surface portion (7, 14) such that the electromagnetic radiation (5, 6) is not reflected or scattered on the second surface portion (7, 14), characterised in that the surface of the specimen comprises a plurality of first and second surface portions (4, 10, 7, 14) arranged so as to be substantially V-shaped in relation to one another, and the surface of the specimen is moved, wherein a sequential engagement between the aperture and a plurality of second surface portions (7, 14) is synchronized due to the movement of the surface. generating electromagnetic radiation (5, 6) with a radiation source, irradiating the first surface portion (4, 10) with the electromagnetic radiation (5, 6), sensing an intensity of the electromagnetic radiation (5, 6) reflected or scattered by the first surface portion (4, 10) with a detector, wherein the surface comprises a second surface portion (7, 14) and the first and second surface portions are arranged so as to be substantially V-shaped in relation to one another, and wherein the radiation source, the detector, the first surface portion, and the second surface portion are arranged in relation to one another such that an intensity of the electromagnetic radiation (5, 6) reflected or scattered sequentially on the first surface portion (4, 10) and on the second surface portion (7, 14) can be sensed by the detector, and arranging an aperture between the first surface portion (4, 10) and the second surface portion (7, 14) such that the electromagnetic radiation (5, 6) is not reflected or scattered on the second surface portion (7, 14), the surface of the specimen comprises a plurality of first and second surface portions (4, 10, 7, 14) arranged so as to be substantially V-shaped in relation to one another, and the surface of the specimen is moved, wherein a sequential engagement between the aperture and a plurality of second surface portions (7, 14) is synchronized due to the movement of the surface.
A method for hybrid content provisioning of remote content stored on a remote content platform and native content, the method comprising: receiving at at least one processor first content information associated with first content stored on a remote content platform; packaging with the at least one processor the received first content information into a first packaged data-asset comprising a link directing to content stored on the remote content platform; enriching with the at least one processor the first packaged data-asset with metadata relating to the received content; receiving at the processor a first content request from a first user device; identifying a first package-data asset associated with remote content; delivering the first package-data asset to the first user device; receiving at the processor a second content request from the first user device; identifying a second package-data asset associated with native content; and delivering the second package-data asset to the first user device. receiving at at least one processor first content information associated with first content stored on a remote content platform; packaging with the at least one processor the received first content information into a first packaged data-asset comprising a link directing to content stored on the remote content platform; enriching with the at least one processor the first packaged data-asset with metadata relating to the received content; receiving at the processor a first content request from a first user device; identifying a first package-data asset associated with remote content; delivering the first package-data asset to the first user device; receiving at the processor a second content request from the first user device; identifying a second package-data asset associated with native content; and delivering the second package-data asset to the first user device.
A method for generating a signal comprising video transcoding hints from a video stream available in a reference quality (S_0) and in at least one different quality (S_i, S_N), the method comprising: - receiving the video stream in the reference quality (IV_REF); - receiving the video stream in the at least one different quality (IV_IN); - extracting first prediction data of the received video stream in the reference quality by decoding the video stream in the reference quality (IV_REF) or by parsing the video stream in the reference quality (IV_REF) in coded form; - extracting second prediction data of the received video stream in the at least one different quality by decoding the video stream in the at least one different quality (IV_IN) or by parsing the video stream in the at least one different quality (IV_IN) in coded form; and - based on the extracted first prediction data and on the extracted second prediction data, generating a transcoding hint signal comprising: at least one transcoding instruction hint for extending a prediction search technique for encoding the video stream from the reference quality into the at least one different quality based on the extracted first prediction data; and at least one respectively associated complexity cost of performing the respective extended prediction search technique, wherein the at least one transcoding instruction hint represents a prediction search technique refinement by adapting a search space of the prediction search technique, wherein the at least one respectively associated complexity cost represents a computational load required for encoding the video stream into the at least one other quality using the adapted search space of the prediction search technique. - receiving the video stream in the reference quality (IV_REF); - receiving the video stream in the at least one different quality (IV_IN); - extracting first prediction data of the received video stream in the reference quality by decoding the video stream in the reference quality (IV_REF) or by parsing the video stream in the reference quality (IV_REF) in coded form; - extracting second prediction data of the received video stream in the at least one different quality by decoding the video stream in the at least one different quality (IV_IN) or by parsing the video stream in the at least one different quality (IV_IN) in coded form; and - based on the extracted first prediction data and on the extracted second prediction data,
A management server for a cloud system comprising: a first application server configured to perform a user-requested task; a second application server configured to provide an additional resource to the first application server; a first cache server configured to provide a caching service to the first application server; and a second cache server configured to provide a caching service to the second application server; wherein the management server is configured to copy data stored in the first cache server into the second cache server when the second application server provides the additional resource to the first application server, wherein the first cache server is configured to store data by dividing the data into a plurality of groups (410, 420, 430) according to a data hit rate to provide the caching service, and wherein the management server is configured to copy data, belonging to at least one of the plurality of groups (410, 420, 430), from the first cache server into the second cache server according to a preset option. a first application server configured to perform a user-requested task; a second application server configured to provide an additional resource to the first application server; a first cache server configured to provide a caching service to the first application server; and a second cache server configured to provide a caching service to the second application server; wherein the management server is configured to copy data stored in the first cache server into the second cache server when the second application server provides the additional resource to the first application server, wherein the first cache server is configured to store data by dividing the data into a plurality of groups (410, 420, 430) according to a data hit rate to provide the caching service, and wherein the management server is configured to copy data, belonging to at least one of the plurality of groups (410, 420, 430), from the first cache server into the second cache server according to a preset option.
An optical device comprising: a deformable membrane, a support to which a peripheral anchoring area of said membrane is connected, a cavity filled with a constant volume of fluid, said cavity being delimited by the membrane, a base (20, 200) extending substantially parallel to the membrane and a wall of the support extending between the base and the membrane, an actuation device of an area of the membrane located between the peripheral anchoring area and a central part of the membrane, configured to bend by application of electrical actuation voltage so as to move some of the volume of fluid located in a region, so-called flow region, located between the actuation area of the membrane and the base of the cavity, said optical device being characterized in that it comprises a heating element adapted to locally heat the fluid in the flow region. a deformable membrane, a support to which a peripheral anchoring area of said membrane is connected, a cavity filled with a constant volume of fluid, said cavity being delimited by the membrane, a base (20, 200) extending substantially parallel to the membrane and a wall of the support extending between the base and the membrane, an actuation device of an area of the membrane located between the peripheral anchoring area and a central part of the membrane, configured to bend by application of electrical actuation voltage so as to move some of the volume of fluid located in a region, so-called flow region, located between the actuation area of the membrane and the base of the cavity, said optical device being characterized in that it comprises a heating element adapted to locally heat the fluid in the flow region.
Tool holding device for shank type tools, comprising at least one tool holder for holding a shank type tool in a distinct upright position and in rotatable manner, the tool holding device being equipped with a topside tool or adapter insertion opening, a base part and a top part, whereby at least the top part comprises uptake holes for the at least one tool holder, and whereas the base part forms a support and/or uptake and/or guide for the at least one tool holder, and whereas the base part and the top part are interconnected to each other by means of at least one spacer, characterized in that the at least one tool holder comprises one and preferably more escape openings which are positioned in vertical direction below the tool or adapter insertion opening and which allow fluid and/or solid treatment agents to exit the tool holder that way that the tool holding device can be used for more than one process step among transfer, cleaning, pretreatment, coating, posttreatment, wherein the tool holding device comprises at least one adapter, wherein the adapter is intended to hold the shank type tool to adopt for different tool diameters of the tool holder and the shank type tool, wherein the adapter can be optionally inserted in the tool holder, wherein the adapter has the form of sleeve or tube with a defined outside diameter as required by the tool holder for pairing and a defined internal diameter as required by the shank of the tool for pairing.