mhurhangee/ep-ind-claims huggingface dataset:
A microelectromechanical system, MEMS, device, comprising: a piezoelectric MEMS ultrasound transducer, PMUT, structure 2700 including a piezoelectric material disposed on a PMUT substrate, wherein the PMUT structure comprises a fingerprint sensor adapted to sense a characteristic of a fingerprint placed adjacent to the PMUT structure; a first metal conductive layer disposed on the piezoelectric material; a plurality of metal electrodes (2720, 2724) configured to form electrical connections between the first metal conductive layer, the piezoelectric material, and a complementary metal oxide semiconductor, CMOS, structure, wherein the PMUT structure and the CMOS structure are vertically stacked; a stand-off formed on the piezoelectric material, wherein the PMUT structure is bonded to the CMOS structure at the stand-off via an aluminum-germanium eutectic bonding layer; and a second metal conductive layer disposed on the piezoelectric material and opposite the first metal conductive layer, wherein the second metal conductive layer is electrically connected to the CMOS structure via another stand-off. a piezoelectric MEMS ultrasound transducer, PMUT, structure 2700 including a piezoelectric material disposed on a PMUT substrate, wherein the PMUT structure comprises a fingerprint sensor adapted to sense a characteristic of a fingerprint placed adjacent to the PMUT structure; a first metal conductive layer disposed on the piezoelectric material; a plurality of metal electrodes (2720, 2724) configured to form electrical connections between the first metal conductive layer, the piezoelectric material, and a complementary metal oxide semiconductor, CMOS, structure, wherein the PMUT structure and the CMOS structure are vertically stacked; a stand-off formed on the piezoelectric material, wherein the PMUT structure is bonded to the CMOS structure at the stand-off via an aluminum-germanium eutectic bonding layer; and a second metal conductive layer disposed on the piezoelectric material and opposite the first metal conductive layer, wherein the second metal conductive layer is electrically connected to the CMOS structure via another stand-off.
A slide assembly (100, 200, 300, 400), configured to be mounted to a first post and a second post (162, 262, 362, 462) of a server rack, the slide assembly (100, 200, 300, 400) comprising: a rail element (102, 202, 302, 402); a first bracket mounted to the rail element (102, 202, 302, 402) and configured to be mounted to the first post of the rack; an extension frame (108, 208, 308, 408) movable relative to the rail element (102, 202, 302, 402); a second bracket (110, 210, 310, 410) mounted to the extension frame (108, 208, 308, 408) and configured to be mounted to the second post (162, 262, 362, 462) of the rack; a blocking element (128, 228, 328, 428) movably connected to the second bracket (110, 210, 310, 410); and an elastic element (138, 258, 338, 438) configured to provide an elastic force to hold the blocking element (128, 228, 328, 428) at a first position relative to the second bracket (110, 210, 310, 410); characterized by: wherein when the extension frame (108, 208, 308, 408) is moved along a direction opposite to a direction toward the second post (162, 262, 362, 462) for pushing the blocking element (128, 228, 328, 428) to move from the first position to a second position, the second bracket (110, 210, 310, 410) is detachable from the second post (162, 262, 362, 462). a rail element (102, 202, 302, 402); a first bracket mounted to the rail element (102, 202, 302, 402) and configured to be mounted to the first post of the rack; an extension frame (108, 208, 308, 408) movable relative to the rail element (102, 202, 302, 402); a second bracket (110, 210, 310, 410) mounted to the extension frame (108, 208, 308, 408) and configured to be mounted to the second post (162, 262, 362, 462) of the rack; a blocking element (128, 228, 328, 428) movably connected to the second bracket (110, 210, 310, 410); and an elastic element (138, 258, 338, 438) configured to provide an elastic force to hold the blocking element (128, 228, 328, 428) at a first position relative to the second bracket (110, 210, 310, 410); characterized by: wherein when the extension frame (108, 208, 308, 408) is moved along a direction opposite to a direction toward the second post (162, 262, 362, 462) for pushing the blocking element (128, 228, 328, 428) to move from the first position to a second position, the second bracket (110, 210, 310, 410) is detachable from the second post (162, 262, 362, 462).
An extensible support foot comprising: - a first body equipped with a support base, - a second body slidingly associated with the first body and movable along a predetermined longitudinal direction towards or away from the support base, - means for adjusting the distance between the second body and the support base, wherein the adjustment means comprise a screw rotatably associated with the second body and configured to be screwed or unscrewed with respect to a nut screw associated with the first body, - a weighing device adapted for measuring a force acting on the second body in said longitudinal direction, and - a device for displaying the measurement carried out by the weighing device, characterised in that said display device comprises a reference element associated with the screw and a window formed in the second body to allow the reference element to be viewed from the outside. - a first body equipped with a support base, - a second body slidingly associated with the first body and movable along a predetermined longitudinal direction towards or away from the support base, - means for adjusting the distance between the second body and the support base, wherein the adjustment means comprise a screw rotatably associated with the second body and configured to be screwed or unscrewed with respect to a nut screw associated with the first body, - a weighing device adapted for measuring a force acting on the second body in said longitudinal direction, and - a device for displaying the measurement carried out by the weighing device,
A thrust device of a brake caliper for a disc brake comprising - a thrust device body, adapted to be translated inside a guide device; - said thrust device body defining an internal cavity at least partially open and facing towards an object to be pushed, for example a brake pad associable with the thrust device; - said internal cavity being delimited by at least one internal surface defined by at least one wall (9, 31) of the thrust device; wherein - from said at least one wall (9, 31) of the thrust device at least one heat dissipation element protrudes into said internal cavity, adapted to increase the extension of said at least one internal surface to evacuate the heat accumulated by said at least one wall (9, 31) of the thrust device; characterized in that said thrust device comprise a plurality of heat dissipation elements. - a thrust device body, adapted to be translated inside a guide device; - said thrust device body defining an internal cavity at least partially open and facing towards an object to be pushed, for example a brake pad associable with the thrust device; - said internal cavity being delimited by at least one internal surface defined by at least one wall (9, 31) of the thrust device; wherein - from said at least one wall (9, 31) of the thrust device at least one heat dissipation element protrudes into said internal cavity, adapted to increase the extension of said at least one internal surface to evacuate the heat accumulated by said at least one wall (9, 31) of the thrust device;
A computer-implemented method for iterative antimalware scanning, the method executed on a processor, the method comprising: a. performing an antimalware scan of a file upon running the file on a target computing system; b. performing static analysis of the file, wherein static analysis operates with a tree of file attributes by which files are classified (214, 216) as malicious with a specified accuracy; c. performing iteration of dynamic file analysis (226, 308) if static analysis does not allow classifying the file with the specified accuracy, comprising: d. intercepting (228, 310) an operation of decrypting data blocks during the execution of the file code; e. updating (232, 312) the tree of file attributes taking into account the decrypted data blocks; f. performing static analysis of the file based on the updated tree of file attributes and g. repeating the steps d., e. and f. until the file is classified with the specified accuracy. a. performing an antimalware scan of a file upon running the file on a target computing system; b. performing static analysis of the file, wherein static analysis operates with a tree of file attributes by which files are classified (214, 216) as malicious with a specified accuracy; c. performing iteration of dynamic file analysis (226, 308) if static analysis does not allow classifying the file with the specified accuracy, comprising: d. intercepting (228, 310) an operation of decrypting data blocks during the execution of the file code; e. updating (232, 312) the tree of file attributes taking into account the decrypted data blocks; f. performing static analysis of the file based on the updated tree of file attributes and g. repeating the steps d., e. and f. until the file is classified with the specified accuracy.
An apparatus, comprising: a frame; at least one frame wheel connected to the frame; an extender device attachable to the frame, the extender device comprising: a platform; at least one platform wheel connected to the platform; and a first extender connector device on the platform to removably attach the platform to the frame and to removably attach the platform to a first bag of a first size; and a frame connector device on the frame to removably attach the first bag to the frame. a frame; at least one frame wheel connected to the frame; an extender device attachable to the frame, the extender device comprising: a platform; at least one platform wheel connected to the platform; and a first extender connector device on the platform to removably attach the platform to the frame and to removably attach the platform to a first bag of a first size; and a platform; at least one platform wheel connected to the platform; and a first extender connector device on the platform to removably attach the platform to the frame and to removably attach the platform to a first bag of a first size; and a frame connector device on the frame to removably attach the first bag to the frame.
A device for controlling a coin discriminator, the device generating coin signals (LF-Q, LF-D, HF-Q, HF-D, 348, 368, 448, 468) at each of two or more frequencies, wherein the coin signals include signals representing size and composition of a passing coin, the device comprising: at least one phase-locked loop, PLL, (104, 114) including circuitry and at least one adaptive operating point, AOP, circuit (102, 500, 550) forming a closed control loop with the at least one PLL, the at least one AOP circuit including a microcontroller receiving the coin signals and, when no coin pass occurs, adjusting at least one control signal (304, 305, 404, 405) provided to the circuitry to adaptively maintain a quiescent operating point for the coin signals over at least one range of operating temperatures. at least one phase-locked loop, PLL, (104, 114) including circuitry and at least one adaptive operating point, AOP, circuit (102, 500, 550) forming a closed control loop with the at least one PLL, the at least one AOP circuit including a microcontroller receiving the coin signals and, when no coin pass occurs, adjusting at least one control signal (304, 305, 404, 405) provided to the circuitry to adaptively maintain a quiescent operating point for the coin signals over at least one range of operating temperatures.
A device for rolling strip material with a periodically variable strip thickness, the device including a roller stand with a set of rollers and an adjustment system for adjustment of the roller gap of the set of rollers, to the entry side of said roller gap the strip material having an initial thickness being fed from an uncoiling station and from the exit side of which the strip material with the respectively desired final thickness being fed to a coiling station, characterized by that between the uncoiling station and the roller stand as well as between the roller stand and the coiling station, a roller assembly with an immersion roller (9, 10) is disposed, around which the strip material is guided, that the positions of the immersion rollers (9, 10), with constant roller speed of the rollers (4, 5) of the roller stand determining the roller gap, are controlled depending on the adjustment of the rollers (4, 5) in order to balance the speed variations of the rolling material at the entry and at the exit of the roller stand, and that the uncoiling station and the coiling station are operated in a tension-controlled manner, and that a machine controller is provided that detects the adjustment of the rollers (4, 5) for a predetermined roller gap and by means of which, depending thereon, the positions of the immersion rollers (9, 10) can be controlled.
A method of making polyethylene from an oxygenate, comprising: a) contacting an oxygenate feed with a molecular sieve catalyst to form an ethylene-containing product, wherein the ethylene-containing product contains ethylene and less than 10 ppm wt. of a contaminant selected from hydrogen sulfide, carbonyl sulfide, and arsine; b) separating ethylene from the ethylene-containing product without subsequently separating ethane from ethylene; c) contacting the separated ethylene with a polyethylene forming catalyst in an ethylene reaction unit to form a reaction stream comprising polyethylene and a vent gas, wherein the vent gas comprises unreacted ethylene; d) separating the vent gas from the ethylene reaction unit; e) removing at least a portion of the non-ethylene compounds from the vent gas as a purge stream, the remainder being an ethylene containing stream; and f) contacting at least a portion of the unreacted ethylene of the ethylene containing stream of step (e) with the polyethylene forming catalyst to form polyethylene, wherein ethylene is polymerized into polyethylene by gas phase polymerization. a) contacting an oxygenate feed with a molecular sieve catalyst to form an ethylene-containing product, wherein the ethylene-containing product contains ethylene and less than 10 ppm wt. of a contaminant selected from hydrogen sulfide, carbonyl sulfide, and arsine; b) separating ethylene from the ethylene-containing product without subsequently separating ethane from ethylene; c) contacting the separated ethylene with a polyethylene forming catalyst in an ethylene reaction unit to form a reaction stream comprising polyethylene and a vent gas, wherein the vent gas comprises unreacted ethylene; d) separating the vent gas from the ethylene reaction unit; e) removing at least a portion of the non-ethylene compounds from the vent gas as a purge stream, the remainder being an ethylene containing stream; and f) contacting at least a portion of the unreacted ethylene of the ethylene containing stream of step (e) with the polyethylene forming catalyst to form polyethylene,
A centrifugal compressor comprising: an impeller; a diffuser flow passage forming portion forming an annular diffuser flow passage on a downstream side of the impeller; characterized by a plurality of small chord-pitch ratio diffuser blades disposed in the diffuser flow passage at intervals in a circumferential direction of the impeller; and a flow passage dividing annulus extending to the diffuser flow passage along a radial direction of the impeller, and dividing the diffuser flow passage into a hub-side flow passage and a shroud-side flow passage, wherein the small chord-pitch ratio diffusor blades are configured such that a ration H/I of a distance H between a leading edge and a trailing edge of the same blade to a circumferential distance I between leading edges of adjacent blades is 1.5 or less. an impeller; a diffuser flow passage forming portion forming an annular diffuser flow passage on a downstream side of the impeller; characterized by a plurality of small chord-pitch ratio diffuser blades disposed in the diffuser flow passage at intervals in a circumferential direction of the impeller; and a flow passage dividing annulus extending to the diffuser flow passage along a radial direction of the impeller, and dividing the diffuser flow passage into a hub-side flow passage and a shroud-side flow passage, wherein the small chord-pitch ratio diffusor blades are configured such that a ration H/I of a distance H between a leading edge and a trailing edge of the same blade to a circumferential distance I between leading edges of adjacent blades is 1.5 or less.
A method for cutting hairs, fibers, or thin flexible materials comprising the following consecutive steps: introducing, aligning and bundling a sample, comprising a plurality of hairs, fibers, or thin flexible materials, in a cylindrically shaped interior of at least one holding member, and cutting the sample and the holding member with a cutting device for obtaining a section, wherein the section comprises a plurality of segments of hairs, fibers or thin, flexible materials and a segment of the holding member. introducing, aligning and bundling a sample, comprising a plurality of hairs, fibers, or thin flexible materials, in a cylindrically shaped interior of at least one holding member, and cutting the sample and the holding member with a cutting device for obtaining a section,
Device for climate control of an interior of a direct printing machine for printing onto containers in the food and beverage industry, comprising: a direct printing machine for printing onto containers, at least one air discharge system for discharging air from said interior of said machine comprising at least two separate air extraction ducts, wherein at least one air extraction duct is configured for the selective extraction of contaminated air, e.g. print mist, and at least one air extraction duct is configured for the selective extraction of high-temperature air, e.g. air heated by light sources for hardening and/or curing inks, wherein the at least two separate air extraction ducts (102,103) of the at least one air discharge system are configured at least in part as ring lines in the ceiling region of the interior of the machine, and at least one air supply system for supplying air to said interior of said machine, wherein said supplied air comprises fresh air and/or purified extracted air. a direct printing machine for printing onto containers, at least one air discharge system for discharging air from said interior of said machine comprising at least two separate air extraction ducts, wherein at least one air extraction duct is configured for the selective extraction of contaminated air, e.g. print mist, and at least one air extraction duct is configured for the selective extraction of high-temperature air, e.g. air heated by light sources for hardening and/or curing inks, wherein the at least two separate air extraction ducts (102,103) of the at least one air discharge system are configured at least in part as ring lines in the ceiling region of the interior of the machine, and at least one air supply system for supplying air to said interior of said machine, wherein said supplied air comprises fresh air and/or purified extracted air.
A system, comprising: a radio frequency identification (RFID) composite device comprising a plurality of individual RFID devices, each of the RFID devices having a memory store, wherein each of the RFID devices has a physical address range; characterized in that at least one of the individual RFID devices comprises memory configuration information for the RFID composite device; and further characterized in that the system comprises a memory addressing facility that, based on the memory configuration information of the at least one of the individual RFID devices, coordinates the mapping of the physical memory address ranges of each of the individual RFID devices communicated from the plurality of individual RFID devices to an RFID interrogator such that the physical memory address ranges of the plurality of RFID devices are mapped to a single logical addressing space to enable the physical memory address ranges of the individual RFID devices to act as a single RFID tag as interrogated by the RFID interrogator. a radio frequency identification (RFID) composite device comprising a plurality of individual RFID devices, each of the RFID devices having a memory store, wherein each of the RFID devices has a physical address range; characterized in that at least one of the individual RFID devices comprises memory configuration information for the RFID composite device; and further characterized in that the system comprises a memory addressing facility that, based on the memory configuration information of the at least one of the individual RFID devices, coordinates the mapping of the physical memory address ranges of each of the individual RFID devices communicated from the plurality of individual RFID devices to an RFID interrogator such that the physical memory address ranges of the plurality of RFID devices are mapped to a single logical addressing space to enable the physical memory address ranges of the individual RFID devices to act as a single RFID tag as interrogated by the RFID interrogator.
Fluid-cooled active part for an electric machine, wherein the active part is essentially cylindrical or hollow cylindrical, having - axially extending grooves, - at least one electrical conductor, which in each case is arranged in the respective groove at least in certain sections and which is composed of a plurality of sub-conductors, - a respective main insulator which is arranged between the respective conductor and the respective groove, and - a respective sub-conductor insulator which surrounds the respective sub-conductor, - a respective cooling channel for guiding the fluid, in particular a process fluid, wherein the respective cooling channel is arranged between the respective main insulator and the respective sub-conductor insulator, wherein the respective main insulator at least largely covers the groove base and the two groove walls, characterised in that at least two electrical conductors are arranged in the respective groove one above the other in the radial direction, wherein a respective conductor shell is provided which surrounds the respective conductor in a plane perpendicular to the axial direction, wherein both the respective groove, at least in the region of the lower electrical conductor, as well as the respective conductor shell of the lower electrical conductor taper in the direction of the groove base in such a way that the respective conductor shell of the lower conductor is positively fixed in the direction of the groove base, and a first, axially extending cavity, in particular for a first inlet channel, remains between the groove base and the respective conductor shell of the lower electrical conductor. - axially extending grooves, - at least one electrical conductor, which in each case is arranged in the respective groove at least in certain sections and which is composed of a plurality of sub-conductors, - a respective main insulator which is arranged between the respective conductor and the respective groove, and - a respective sub-conductor insulator which surrounds the respective sub-conductor, - a respective cooling channel for guiding the fluid, in particular a process fluid,
Use of a deproteinised calf blood preparation for the preparation of a medicament for the prevention or treatment of diabetic peripheral polyneuropathy, wherein 1000 mg or 2000 mg of the deproteinised calf blood preparation is administered intravenously daily during a period of at least 10 consecutive days and wherein the intravenous administration is followed by a period of oral administration of 200 mg, 400 mg or 600 mg of the deproteinised calf blood preparation once, twice or three times daily for a period of 120 days or even longer as a substantially continous treatment.