mhurhangee/ep-ind-claims huggingface dataset:
Miniature spectrometer for spectrometry and for image capture, comprising - a detection unit for capturing an optical variable and - an optical unit comprising a polarizer, a Savart element, which comprises a first birefringent element and a second birefringent element, and an analyser, characterized in that - a first liquid crystal element is disposed between the polarizer and the Savart element in the beam path, said first liquid crystal element being designed to set a fourth polarization axis of radiation, emanating from the first liquid crystal element, in such a way that • the radiation emanating from the first liquid crystal element passes through the first birefringent element without splitting in an imaging mode of the miniature spectrometer and • the radiation emanating from the first liquid crystal element is split into a first ordinary ray and a first extraordinary ray in the first birefringent element in a spectrometer mode of the miniature spectrometer and - wherein the analyser is disposed downstream of the Savart element in the beam path and - the detection unit is disposed downstream of the analyser in the beam path. - a detection unit for capturing an optical variable and - an optical unit comprising a polarizer, a Savart element, which comprises a first birefringent element and a second birefringent element, and an analyser, characterized in that - a first liquid crystal element is disposed between the polarizer and the Savart element in the beam path, said first liquid crystal element being designed to set a fourth polarization axis of radiation, emanating from the first liquid crystal element, in such a way that • the radiation emanating from the first liquid crystal element passes through the first birefringent element without splitting in an imaging mode of the miniature spectrometer and • the radiation emanating from the first liquid crystal element is split into a first ordinary ray and a first extraordinary ray in the first birefringent element in a spectrometer mode of the miniature spectrometer and • the radiation emanating from the first liquid crystal element passes through the first birefringent element without splitting in an imaging mode of the miniature spectrometer and • the radiation emanating from the first liquid crystal element is split into a first ordinary ray and a first extraordinary ray in the first birefringent element in a spectrometer mode of the miniature spectrometer and - wherein the analyser is disposed downstream of the Savart element in the beam path and - the detection unit is disposed downstream of the analyser in the beam path.
Leveling and troweling device, comprising two guide rails which are to be supported on a ground on two supports each and which are held at a distance by two spacers, and a troweling rail which can be moved along the guide rails, the troweling rail being longer than the spacers and being connected to the guide rails by two suspensions on the side of the guide rails to be faced to the ground and being displaceable in its longitudinal direction and in the longitudinal direction of the guide rails, characterized in that each suspension has in each case an elongate body with a longitudinal axis and thereon at least one first roller guided in or on the guide rail and at least one second roller arranged at a distance from the first roller and guided in or on the troweling rail.
An assembly for use with an insertion device including a main body having a plunger that moves in a lens advancing direction and an intraocular lens having an optical portion and one or more supporting portions provided on an outer fringe of the optical portion, the assembly comprising: an intraocular lens cartridge that is configured to be attached to the insertion device main body and that includes a cartridge body with a lens insertion opening, a lens placement portion, a transition portion, and a nozzle portion in sequence along the lens advancing direction, and an internal lumen that extends through the lens placement portion, the transition portion, and the nozzle portion; and a cartridge casing including a main body that is configured to be removably attached to the intraocular lens cartridge and a protrusion; characterized by the cartridge body includes a protrusion insertion hole that penetrates the thickness of the intraocular lens cartridge and extends in a direction that is perpendicular to the lens advancing direction and a lateral direction, from the exterior of the intraocular lens cartridge to the lumen; and the intraocular lens cartridge and the cartridge casing are respectively configured such that the protrusion extends through the protrusion insertion hole with the tip end of the protrusion exposed to the internal lumen at a location between the nozzle portion and lens insertion opening when the intraocular lens cartridge is installed on the cartridge casing so that one of the supporting portion will be folded by the protrusion in a direction opposite of the lens advancing direction. an intraocular lens cartridge that is configured to be attached to the insertion device main body and that includes a cartridge body with a lens insertion opening, a lens placement portion, a transition portion, and a nozzle portion in sequence along the lens advancing direction, and an internal lumen that extends through the lens placement portion, the transition portion, and the nozzle portion; and a cartridge casing including a main body that is configured to be removably attached to the intraocular lens cartridge and a protrusion; characterized by the cartridge body includes a protrusion insertion hole that penetrates the thickness of the intraocular lens cartridge and extends in a direction that is perpendicular to the lens advancing direction and a lateral direction, from the exterior of the intraocular lens cartridge to the lumen; and the intraocular lens cartridge and the cartridge casing are respectively configured such that the protrusion extends through the protrusion insertion hole with the tip end of the protrusion exposed to the internal lumen at a location between the nozzle portion and lens insertion opening when the intraocular lens cartridge is installed on the cartridge casing so that one of the supporting portion will be folded by the protrusion in a direction opposite of the lens advancing direction.
A dynamic visual RFID tag comprising: a display; an RFID tag; a communications module a display microcontroller; and an internal energy source, wherein the communications module transmits display update instructions to the display microcontroller, characterized in that the RFID tag and the communications module each have a unique identifier, wherein the information is displayed on the display in response to an RFID reader interrogation received by the RFID tag and/or upon a change of location of the RFID tag detected by an RFID reader in communication with the central control station, and wherein the information displayed on the display is derived from information sent from a central control station and received wirelessly by the communications module. a display; an RFID tag; a communications module a display microcontroller; and an internal energy source, wherein the communications module transmits display update instructions to the display microcontroller, characterized in that the RFID tag and the communications module each have a unique identifier, wherein the information is displayed on the display in response to an RFID reader interrogation received by the RFID tag and/or upon a change of location of the RFID tag detected by an RFID reader in communication with the central control station, and wherein the information displayed on the display is derived from information sent from a central control station and received wirelessly by the communications module.
A protective helmet, comprising: an energy management material comprising an outer surface and an inner surface facing away from the outer surface; a rim positioned between the inner surface and the outer surface; an adjustable fit system coupled to the energy management material and positioned inside the helmet; a pad assembly coupled to the fit system, the pad assembly comprising: an absorbent forehead pad positioned in a front portion of the helmet proximate the rim and a plurality of fingers extending toward the rear end of the helmet and coupled to the inner surface; and at least one absorbent extension tab extending from the forehead pad and across a portion of a surface of the rim outward of the inner surface of the energy management material, wherein the forehead pad and each of the at least one absorbent extension tab comprise a common, continuous absorptive material. an energy management material comprising an outer surface and an inner surface facing away from the outer surface; a rim positioned between the inner surface and the outer surface; an adjustable fit system coupled to the energy management material and positioned inside the helmet; a pad assembly coupled to the fit system, the pad assembly comprising: an absorbent forehead pad positioned in a front portion of the helmet proximate the rim and a plurality of fingers extending toward the rear end of the helmet and coupled to the inner surface; and at least one absorbent extension tab extending from the forehead pad and across a portion of a surface of the rim outward of the inner surface of the energy management material, wherein the forehead pad and each of the at least one absorbent extension tab comprise a common, continuous absorptive material. an absorbent forehead pad positioned in a front portion of the helmet proximate the rim and a plurality of fingers extending toward the rear end of the helmet and coupled to the inner surface; and at least one absorbent extension tab extending from the forehead pad and across a portion of a surface of the rim outward of the inner surface of the energy management material, wherein the forehead pad and each of the at least one absorbent extension tab comprise a common, continuous absorptive material.
Zn alloy particles for high corrosion resistance rust prevention paint containing, by mass%, Mg: 0.01 to 30% and optionally one or both of A1: 0.01 to 30% and Si: 0.01 to 3% and having a balance of Zn and unavoidable impurities, having physical fracture facets and/or cracks of a length of 0.01 μm or more or cracks of a depth of 0.01 μm or more, having an average particle size of 0.05 to 200 μm, and having an aspect ratio of maximum size and minimum size (maximum size/minimum size) of an average value of 1 tc 1.5.
A growth substrate comprising: a base substrate; a first buffer layer (120, 220) disposed on the base substrate and including pin holes (125, 225) or islands (222, 223) exposing portions of the base substrate, wherein the islands (222, 223) are separated from each other; a second buffer layer (130, 230) disposed on the first buffer layer (120, 220) and comprising a first material and a second material (132, 232), wherein the first material has a lower melting point than the first buffer layer (120, 220) and the second material is formed by an eutectic reaction of the first material with the base substrate; and a third buffer layer (135, 235) disposed on the second buffer layer (130, 230), wherein voids (152, 252) are formed within the pin holes (125, 225) or formed between the islands (222, 223). a base substrate; a first buffer layer (120, 220) disposed on the base substrate and including pin holes (125, 225) or islands (222, 223) exposing portions of the base substrate, wherein the islands (222, 223) are separated from each other; a second buffer layer (130, 230) disposed on the first buffer layer (120, 220) and comprising a first material and a second material (132, 232), wherein the first material has a lower melting point than the first buffer layer (120, 220) and the second material is formed by an eutectic reaction of the first material with the base substrate; and a third buffer layer (135, 235) disposed on the second buffer layer (130, 230), wherein voids (152, 252) are formed within the pin holes (125, 225) or formed between the islands (222, 223).
A method for determining the amount of underivatized estrone in a body fluid sample, said method comprising: (i) acidifying said body fluid sample; (ii) purifying estrone from said body fluid sample by liquid chromatography; (iii) ionizing estrone from said sample and an internal standard to produce at least one estrone ion and at least one internal standard ion detectable by mass spectrometry; (iv) determining the amount of said at least one estrone ion and the amount of said at least one internal standard ion by mass spectrometry; and (v) comparing the amount of said at least one estrone ion and the amount of said at least one internal standard ion to determine the amount of estrone in the sample; wherein said method has a limit of detection less than or equal to 10 pg/mL. wherein the liquid chromatography is high performance liquid chromatography (HPLC) and high turbulence liquid chromatography (HTLC). (i) acidifying said body fluid sample; (ii) purifying estrone from said body fluid sample by liquid chromatography; (iii) ionizing estrone from said sample and an internal standard to produce at least one estrone ion and at least one internal standard ion detectable by mass spectrometry; (iv) determining the amount of said at least one estrone ion and the amount of said at least one internal standard ion by mass spectrometry; and (v) comparing the amount of said at least one estrone ion and the amount of said at least one internal standard ion to determine the amount of estrone in the sample;
Roundbaler with bale wrapper, wherein the bale wrapper comprises a bale-wrapping device which rotates about a vertical axis of rotation and which has rotation arms which extend parallel to the axis of rotation and on which rolls with wrapping material can be guided within an action region, which extends transversely and longitudinally with respect to the axis of rotation, of the bale-wrapping device, characterized in that a bounding linkage arranged on the roundbaler or on the bale wrapper is arranged which extends on the rear side of the roundbaler and is pivotable from an upper position into a lower position, and vice versa, and by means of which, in the lower position, a region, which is situated on the rear side of the roundbaler, of the action region of the bale-wrapping device is horizontally bounded.
A razor assembly, comprising: at least one shaving blade having a cutting edge; a blade housing (110, 210, 310, 410, 510, 610) configured to accommodate the at least one shaving blade such that a width direction of the blade housing (110, 210, 310, 410, 510, 610) is in parallel with a longitudinal direction of the cutting edge and comprising an inlet portion (112, 212, 312, 412, 512, 612) disposed on a rear surface of the blade housing (110, 210, 310, 410, 510, 610), a discharge portion (114, 214, 314, 414, 514, 614), and a communication portion (116, 216, 316, 416, 516, 616) configured to communicate the inlet portion (112, 212, 312, 412, 512, 612) to the discharge portion (114, 214, 314, 414, 514, 614); a cover member configured to cover at least a portion of a rear surface of the blade housing (110, 210, 310, 410, 510, 610); and an aid supplying member configured to deliver a shaving aid to the inlet portion (112, 212, 312, 412, 512, 612), wherein the shaving aid, which is delivered from the aid supplying member to the inlet portion (112, 212, 312, 412, 512, 612), passes through the communication portion (116, 216, 316, 416, 516, 616) and is discharged from the discharge portion (114, 214, 314, 414, 514, 614), characterised in that the communication portion (116, 216, 316, 416, 516, 616) has a recessed shape with an open side on the rear surface of the blade housing (110, 210, 310, 410, 510, 610), and wherein the open side of the communication portion (116, 216, 316, 416, 516, 616) is closed by the cover member. at least one shaving blade having a cutting edge; a blade housing (110, 210, 310, 410, 510, 610) configured to accommodate the at least one shaving blade such that a width direction of the blade housing (110, 210, 310, 410, 510, 610) is in parallel with a longitudinal direction of the cutting edge and comprising an inlet portion (112, 212, 312, 412, 512, 612) disposed on a rear surface of the blade housing (110, 210, 310, 410, 510, 610), a discharge portion (114, 214, 314, 414, 514, 614), and a communication portion (116, 216, 316, 416, 516, 616) configured to communicate the inlet portion (112, 212, 312, 412, 512, 612) to the discharge portion (114, 214, 314, 414, 514, 614); a cover member configured to cover at least a portion of a rear surface of the blade housing (110, 210, 310, 410, 510, 610); and an aid supplying member configured to deliver a shaving aid to the inlet portion (112, 212, 312, 412, 512, 612), wherein the shaving aid, which is delivered from the aid supplying member to the inlet portion (112, 212, 312, 412, 512, 612), passes through the communication portion (116, 216, 316, 416, 516, 616) and is discharged from the discharge portion (114, 214, 314, 414, 514, 614), characterised in that the communication portion (116, 216, 316, 416, 516, 616) has a recessed shape with an open side on the rear surface of the blade housing (110, 210, 310, 410, 510, 610), and wherein the open side of the communication portion (116, 216, 316, 416, 516, 616) is closed by the cover member.
A photoconductive device for emitting or detecting terahertz (THz) radiation, comprising: a semiconductor substrate; an antenna assembly fabricated on the semiconductor substrate; and a photoconductor assembly fabricated on the semiconductor substrate and coupled to the antenna assembly, the photoconductor assembly includes one or more plasmonic contact electrodes; wherein the photoconductive device receives optical input from at least one optical source and uses the plasmonic contact electrodes to improve the quantum efficiency of the photoconductive device, characterized in that the plasmonic contact electrodes are configured in a periodic arrangement with sub-wavelength electrode spacing compared to a wavelength of the optical input from the at least one optical source. a semiconductor substrate; an antenna assembly fabricated on the semiconductor substrate; and a photoconductor assembly fabricated on the semiconductor substrate and coupled to the antenna assembly, the photoconductor assembly includes one or more plasmonic contact electrodes;
A method of determining a tire state and providing an alarm using a smart tire system including a tire equipped with a TPMS sensor unit, which includes a TPMS sensor and a sensor processor, and a sensor information processor,the method comprising: a) generating discrete time-series tire state signals by measuring state variables inside the tire by means of the TPMS sensor; b) determining whether there is a problem with samples of the discrete time-series tire state signals by comparing the samples of the discrete time-series tire state signals with a problem determination reference by means of the sensor processor; c) generating a first alarm for a driver by means of the sensor processor, when it is determined that there is an abnormal sample in the samples of the discrete time-series tire state signals in the step b); d) transmitting the discrete time-series tire state signals to the sensor information processor by means of the TPMS sensor unit; e) determining whether one or more of n samples have a problem by sequentially comparing the n samples right after an abnormal sample with a problem determination reference, by means of the sensor information processor; f) generating a second alarm for the driver by means of the sensor information processor, when it is determined that one or more of the n samples have a problem in the step e); and g) removing the first alarm by means of the sensor information processor, when it is determined that all of the n samples do not have a problem in the step e), wherein in the discrete time-series tire state signals transmitted to the sensor information processor, the step e) and the following steps are performed on samples after the n sample determined having no problem in the step g). a) generating discrete time-series tire state signals by measuring state variables inside the tire by means of the TPMS sensor; b) determining whether there is a problem with samples of the discrete time-series tire state signals by comparing the samples of the discrete time-series tire state signals with a problem determination reference by means of the sensor processor; c) generating a first alarm for a driver by means of the sensor processor, when it is determined that there is an abnormal sample in the samples of the discrete time-series tire state signals in the step b); d) transmitting the discrete time-series tire state signals to the sensor information processor by means of the TPMS sensor unit; e) determining whether one or more of n samples have a problem by sequentially comparing the n samples right after an abnormal sample with a problem determination reference, by means of the sensor information processor; f) generating a second alarm for the driver by means of the sensor information processor, when it is determined that one or more of the n samples have a problem in the step e); and g) removing the first alarm by means of the sensor information processor, when it is determined that all of the n samples do not have a problem in the step e),
A communication method of a terminal (405; 505) in a mobile carrier aggregated communication system, the communication method specifically adapted for: receiving (415; 525), from a base station (410; 510), a first message (415; 515) comprising an identifier for at least one cell to be configured, the identifier for each of the at least one cell being an integer greater than and not equal to an identifier of a primary cell; receiving, from the base station, a second message comprising information indicating activation or deactivation for each of the at least one cell, the second message further comprising a bitmap and each bit of the bitmap indicating activating or deactivating a cell with the identifier corresponding to a bit position of the each bit of the bitmap; and activating or deactivating the at least one cell based on the first message and the second message, wherein the first message further comprises a physical cell identity, ID, corresponding to the identifier for the at least one cell and information on a carrier frequency corresponding to the identifier for the at least one cell. receiving (415; 525), from a base station (410; 510), a first message (415; 515) comprising an identifier for at least one cell to be configured, the identifier for each of the at least one cell being an integer greater than and not equal to an identifier of a primary cell; receiving, from the base station, a second message comprising information indicating activation or deactivation for each of the at least one cell, the second message further comprising a bitmap and each bit of the bitmap indicating activating or deactivating a cell with the identifier corresponding to a bit position of the each bit of the bitmap; and activating or deactivating the at least one cell based on the first message and the second message, wherein the first message further comprises a physical cell identity, ID, corresponding to the identifier for the at least one cell and information on a carrier frequency corresponding to the identifier for the at least one cell.