mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an adhesive layer, comprising the following steps: - applying a crosslinkable polymer composition into a cavity of a print roll comprising at least one cavity, - inducing or effecting a crosslinking reaction for generating an at least partially crosslinked adhesive layer, and - removing the at least partially crosslinked adhesive layer from the cavity. - applying a crosslinkable polymer composition into a cavity of a print roll comprising at least one cavity, - inducing or effecting a crosslinking reaction for generating an at least partially crosslinked adhesive layer, and - removing the at least partially crosslinked adhesive layer from the cavity.
A method for efficient control signaling over shared satellite communication channels, the method comprising: determining a plurality of modcodes, wherein each modcode represents at least a modulation, a code rate, a spreading factor, or a frame size; determining a plurality of code words, wherein each respective code word is associated with a respective modcode from the plurality of modcodes; modulating a first code word from the plurality of code words with a first pattern to form a modulated first code word, wherein the first pattern depends upon a first signal to noise ratio associated with a first modcode; modulating a second code word from the plurality of code words with a second pattern to form a modulated second code word, wherein the second pattern depends upon a second signal to noise ratio associated with a second modcode, wherein the modulated second code word is longer than the modulated first code word; and transmitting the modulated first code word and modulated second code word over a wireless channel. determining a plurality of modcodes, wherein each modcode represents at least a modulation, a code rate, a spreading factor, or a frame size; determining a plurality of code words, wherein each respective code word is associated with a respective modcode from the plurality of modcodes; modulating a first code word from the plurality of code words with a first pattern to form a modulated first code word, wherein the first pattern depends upon a first signal to noise ratio associated with a first modcode; modulating a second code word from the plurality of code words with a second pattern to form a modulated second code word, wherein the second pattern depends upon a second signal to noise ratio associated with a second modcode, wherein the modulated second code word is longer than the modulated first code word; and transmitting the modulated first code word and modulated second code word over a wireless channel.
A turbine blisk comprising: an inner rim; a plurality of adjacent rotor blades extending radially outward from said inner rim; a shroud segment integrally coupled to each of said plurality of adjacent rotor blades, thereby forming a plurality of adjacent shroud segments; and a gap defined between each of said adjacent shroud segments, wherein said gap has a geometry that facilitates interlocking said plurality of adjacent shroud segments when a torsional force is applied to said plurality of adjacent rotor blades; wherein said gap defines a plurality of complementary side wall pairs (224, 228, 232) between each of said adjacent shroud segments, each of said plurality of complementary side wall pairs (224, 228, 232) extending at oblique angles relative to each other; characterized in that at least one of said plurality of complementary side wall pairs comprises side walls that extend substantially perpendicularly relative to a centerline of each of said plurality of adjacent rotor blades. an inner rim; a plurality of adjacent rotor blades extending radially outward from said inner rim; a shroud segment integrally coupled to each of said plurality of adjacent rotor blades, thereby forming a plurality of adjacent shroud segments; and a gap defined between each of said adjacent shroud segments, wherein said gap has a geometry that facilitates interlocking said plurality of adjacent shroud segments when a torsional force is applied to said plurality of adjacent rotor blades; wherein said gap defines a plurality of complementary side wall pairs (224, 228, 232) between each of said adjacent shroud segments, each of said plurality of complementary side wall pairs (224, 228, 232) extending at oblique angles relative to each other; characterized in that at least one of said plurality of complementary side wall pairs comprises side walls that extend substantially perpendicularly relative to a centerline of each of said plurality of adjacent rotor blades.
A production method for a nonwoven material suitable for use as a filtration layer characterized by passing a fiber mixture through the following stages: fiber opening stage, fiber feeding stage, carding stage and bonding stage,wherein in the bonding stage, the carded web obtained from the carding stage is delivered between internally oil-heated calenders passed between a hot smooth calender and a hot embossing calender, calendered with temperature and pressure, fixed through thermal bonding points, and forming the carded thermobond non-woven layer, with the temperature value ranging from 35-500 C 0, a temperature difference between the calenders of ± 20 C 0 and the thermal bonding area of the embossing calender being in the range of 5-40%. fiber opening stage, fiber feeding stage, carding stage and bonding stage,wherein in the bonding stage, the carded web obtained from the carding stage is delivered between internally oil-heated calenders passed between a hot smooth calender and a hot embossing calender, calendered with temperature and pressure, fixed through thermal bonding points, and forming the carded thermobond non-woven layer, with the temperature value ranging from 35-500 C 0, a temperature difference between the calenders of ± 20 C 0 and the thermal bonding area of the embossing calender being in the range of 5-40%.
A polyethylene formulation comprising: a multimodal high density polyethylene (HDPE) composition, and 750 ppm to 2,500 ppm of a nucleating agent, wherein the multimodal HDPE composition comprises a density of 0.940 g/cm 3 to 0.970 g/cm 3 when measured according to ASTM D792, and a melt index (I 2) of 0.01 g/10 min. to 1.0 g/10 min. when measured according to ASTM D1238 at 190°C and a 2.16 kg load, and wherein the multimodal HDPE composition comprises an infrared cumulative detector fraction (CDF IR) of greater than 0.27 and an infrared cumulative detector fraction to light scattering cumulative detector fraction ratio (CDF IR / CDF LS) from 0.7 to 2.0, wherein the CDF IR is computed by measuring the area fraction of an IR5 measurement channel detector chromatogram less than 15,000 g/mol molecular weight using Gel Permeation Chromatography; and wherein the CDF LS is computed by measuring the area fraction of a low angle laser light scattering (LALLS) detector chromatogram greater than 1,000,000 g/mol molecular weight using GPC; wherein the multimodal high density polyethylene composition is a bimodal HDPE composition. a multimodal high density polyethylene (HDPE) composition, and 750 ppm to 2,500 ppm of a nucleating agent, wherein the multimodal HDPE composition comprises a density of 0.940 g/cm 3 to 0.970 g/cm 3 when measured according to ASTM D792, and a melt index (I 2) of 0.01 g/10 min. to 1.0 g/10 min. when measured according to ASTM D1238 at 190°C and a 2.16 kg load, and wherein the multimodal HDPE composition comprises an infrared cumulative detector fraction (CDF IR) of greater than 0.27 and an infrared cumulative detector fraction to light scattering cumulative detector fraction ratio (CDF IR / CDF LS) from 0.7 to 2.0, wherein the CDF IR is computed by measuring the area fraction of an IR5 measurement channel detector chromatogram less than 15,000 g/mol molecular weight using Gel Permeation Chromatography; and wherein the CDF LS is computed by measuring the area fraction of a low angle laser light scattering (LALLS) detector chromatogram greater than 1,000,000 g/mol molecular weight using GPC; wherein the CDF IR is computed by measuring the area fraction of an IR5 measurement channel detector chromatogram less than 15,000 g/mol molecular weight using Gel Permeation Chromatography; and wherein the CDF LS is computed by measuring the area fraction of a low angle laser light scattering (LALLS) detector chromatogram greater than 1,000,000 g/mol molecular weight using GPC; wherein the multimodal high density polyethylene composition is a bimodal HDPE composition.
A gas analysis system comprising: - a fluidic channel intended for the flow of a gas to be analyzed carried by a carrier gas, - at least one detector laid out in said fluidic channel and adapted for measuring interactions of the gas with said detector, said detector comprising at least one resonator of the electromechanical nanosystem (NEMS) type in the form of a beam, wherein the beam is clamped at one of its ends and free at the opposite end or wherein the beam is clamped as both ends; - an actuation device for vibrationally actuating the resonator according to an excitation signal applied to an input of the detector, - a detection device adapted for providing an output electric signal representative of the vibrations of said resonator, wherein the detection device comprises two piezo-resistive strain gauges laid out on either side of said beam in the vicinity of a clamped end, - a read-out device connected to an input of the detector and configured for simultaneously measuring, from the output signal of said at least one detector, the change in resonance frequency and the change in amplitude of the vibrations at the resonance frequency of the resonator, and - a processing device configured for determining from said changes at least a viscosity or an effective viscosity of said gas, said system being characterized in that it comprises a electrical heating system comprising a DC voltage source coupled to the beam itself when the beam is clamped as both ends or to the piezo-resistive strain gauges when the beam is clamped at one of its ends for respectively heating the beam itself or heating the piezo-resistive strain gauges by Joule effect so as to increase the viscosity contrast between the gas to be analyzed and the carrier gas. - a fluidic channel intended for the flow of a gas to be analyzed carried by a carrier gas, - at least one detector laid out in said fluidic channel and adapted for measuring interactions of the gas with said detector, said detector comprising at least one resonator of the electromechanical nanosystem (NEMS) type in the form of a beam, wherein the beam is clamped at one of its ends and free at the opposite end or wherein the beam is clamped as both ends; - an actuation device for vibrationally actuating the resonator according to an excitation signal applied to an input of the detector, - a detection device adapted for providing an output electric signal representative of the vibrations of said resonator, wherein the detection device comprises two piezo-resistive strain gauges laid out on either side of said beam in the vicinity of a clamped end, - a read-out device connected to an input of the detector and configured for simultaneously measuring, from the output signal of said at least one detector, the change in resonance frequency and the change in amplitude of the vibrations at the resonance frequency of the resonator, and - a processing device configured for determining from said changes at least a viscosity or an effective viscosity of said gas,
A continuously variable transmission belt element manufacturing method, the element including: a body portion having left and right lateral sides abutting respectively against left and right pulley halves (12L, 12R) of a pulley of a continuously variable transmission and having a downwardly tapered taper portion; a neck portion extending upwardly from the body portion (22L, 22R); and a head portion extending upwardly from the neck portion, the method comprising: a step of preparing a metal strip-shaped stock having a uniform thickness and a width enough to acquire even columns of elements in one form of a form where the head portions confront each other and/or a form where the body portions confront each other; a first blanking step of blanking the metal strip-shaped stock along contour lines of the left and right lateral sides (22L, 22R) of the body portion and along a contour line of the bottom side of the body portion for promoting subsequent working steps; a plastic working step of compressing the metal strip-shaped stock in a thickness direction to form the predetermined recessed and raised portions (26, 27) and to form the taper portion; and a second blanking step of cutting out the element as a product from the metal strip-shaped stock, characterized in that the contour lines of the left and right lateral sides (22L, 22R) are contour lines of an excess metals added to contours of the left and right lateral sides (22L, 22R) and the contour line of the bottom side is the contour line of an excess metals added to a contour of the bottom side of the body portion for promoting subsequent working steps so that, in the plastic working step, the predetermined recessed and raised portions (26, 27) and the taper portion are formed while causing the metals to flow to the edge; and the method further comprises, before the plastic working step, a slit forming step of punching and forming a slit between the confronting head portions in the form where the head portions confront each other.
An airfoil for a gas turbine engine with a turning flow, the airfoil comprising: a first surface and a second surface, the first and second surfaces extending from a leading edge to a trailing edge; a chord extending from a midpoint of the leading edge to a midpoint of the trailing edge; and an axial length of the chord along a turbine axis (C L), the axial length defining an aspect ratio with respect to an average radial span of the leading and trailing edges, the aspect ratio being defined by the ratio of the average radial span to the axial length of the chord, the chord defining a duct angle (α) in an axial-radial plane of at least fifteen degrees with respect to the turbine axis, characterised by a region of the trailing edge comprising at least a radially innermost thirty percent span of the trailing edge, wherein an axial angle (θ) of the trailing edge is at most four degrees in the region and a circumferential angle (φ) of the trailing edge is at most twenty degrees in the region as defined in the opposite or same direction as the turning flow, the axial angle (θ) being defined in a plane containing the turbine axis (C L) and a radius (r) through an innermost point of the trailing edge in an upstream direction with respect to the radius (r), said radius (r) being perpendicular to the turbine axis (C L), and the circumferential angle being defined in a plane perpendicular to the turbine axis (C L) and containing the radius (r) between the trailing edge and the radius (r) in a direction opposite the turning flow, and wherein the aspect ratio is of at most one. a first surface and a second surface, the first and second surfaces extending from a leading edge to a trailing edge; a chord extending from a midpoint of the leading edge to a midpoint of the trailing edge; and an axial length of the chord along a turbine axis (C L), the axial length defining an aspect ratio with respect to an average radial span of the leading and trailing edges, the aspect ratio being defined by the ratio of the average radial span to the axial length of the chord, the chord defining a duct angle (α) in an axial-radial plane of at least fifteen degrees with respect to the turbine axis, characterised by a region of the trailing edge comprising at least a radially innermost thirty percent span of the trailing edge, wherein an axial angle (θ) of the trailing edge is at most four degrees in the region and a circumferential angle (φ) of the trailing edge is at most twenty degrees in the region as defined in the opposite or same direction as the turning flow, the axial angle (θ) being defined in a plane containing the turbine axis (C L) and a radius (r) through an innermost point of the trailing edge in an upstream direction with respect to the radius (r), said radius (r) being perpendicular to the turbine axis (C L), and the circumferential angle being defined in a plane perpendicular to the turbine axis (C L) and containing the radius (r) between the trailing edge and the radius (r) in a direction opposite the turning flow, and wherein the aspect ratio is of at most one.
A mobile system comprising: an apparatus for using a licensed spectrum; an apparatus for using a shared spectrum; a monitoring unit to monitor a control message from a base station system via the licensed spectrum each predetermined period while in a sleep mode; and a mode converter to convert the sleep mode to an awake mode based on the control message; wherein the control message is transmitted from the base station system when an allocated shared spectrum is changed; and wherein the mobile system is configured to perform synchronization with the base station system for the changed shared spectrum after being converted to the awake mode. an apparatus for using a licensed spectrum; an apparatus for using a shared spectrum; a monitoring unit to monitor a control message from a base station system via the licensed spectrum each predetermined period while in a sleep mode; and a mode converter to convert the sleep mode to an awake mode based on the control message; wherein the control message is transmitted from the base station system when an allocated shared spectrum is changed; and wherein the mobile system is configured to perform synchronization with the base station system for the changed shared spectrum after being converted to the awake mode.
Method for detecting products containing glycoalkaloid, in particular solanine, in a product flow of potato products, by making a beam of light with a wave length situated in a band of 350 to 450 nm strike these products and by detecting the presence of fluorescence in a red light spectrum, in particular by detecting the intensity of the light which is emitted by the products in a band of 600 to 750 nm, and preferably in a band between 600 and 700 nm, whereby a product will be qualified as a product containing glycoalkaloid when said intensity is higher than a preset value.
A waveguide-type optical interferometer including at least one input waveguide (101, 102), an optical splitter connected to the input waveguide (101, 102), at least one output waveguide, an optical combiner connected to the output waveguide (104, 105), at least two arm waveguides that provide a connection between the optical splitter and the optical combiner, and a half-wave plate having an optic axis inclined at any one of 45° and -45° relative to optic axes of the at least two arm waveguides, the waveguide-type optical interferometer being characterized by comprising: phase difference providing waveguide portions that provide a phase difference of 180° between polarizations crossing at right angles in the at least two arm waveguides, at operating wavelengths used in the optical interferometer, the phase difference providing waveguide portions being contained in the at least two arm waveguides, respectively, and being located separately from the half-wave plate and on any one of the optical combiner side and the optical splitter side with respect to the half-wave plate, wherein the half-wave plate is interposed in the at least two arm waveguides at a location corresponding to a midpoint of an optical path length of each of the at least two arm waveguides in the absence of the phase difference providing waveguide portions, and the half-wave plate is asymmetrically interposed from the viewpoint of the waveguide-type optical interferometer taken as a whole in the presence of the phase difference providing waveguide portions. phase difference providing waveguide portions that provide a phase difference of 180° between polarizations crossing at right angles in the at least two arm waveguides, at operating wavelengths used in the optical interferometer, the phase difference providing waveguide portions being contained in the at least two arm waveguides, respectively, and being located separately from the half-wave plate and on any one of the optical combiner side and the optical splitter side with respect to the half-wave plate, wherein the half-wave plate is interposed in the at least two arm waveguides at a location corresponding to a midpoint of an optical path length of each of the at least two arm waveguides in the absence of the phase difference providing waveguide portions, and the half-wave plate is asymmetrically interposed from the viewpoint of the waveguide-type optical interferometer taken as a whole in the presence of the phase difference providing waveguide portions.
A method for backing up an unread short message, comprising: storing a new short message received by a mobile communication terminal in a terminal storage and backing up the new short message to a subscriber identity card; and when a user reads or deletes an unread short message stored in the terminal storage, deleting a backup unread short message, which is stored in the subscriber identity card, corresponding to the new short message. storing a new short message received by a mobile communication terminal in a terminal storage and backing up the new short message to a subscriber identity card; and when a user reads or deletes an unread short message stored in the terminal storage, deleting a backup unread short message, which is stored in the subscriber identity card, corresponding to the new short message.
A patch for use in alleviation and prevention of acne, wherein the patch is a biodegradable metal represented by Chemical Formula 1 below and having an anti-acne effect, and wherein the patch is applied to skin: [Chemical Formula 1] Mg a Zn b X c in Chemical Formula 1, a, b and c are wt% of individual components, a+b+c = 100 wt%, 0≤a≤100, 0≤b≤100, and 0≤c≤10, among which a or b is greatest, and X is at least one selected from the group consisting of Ca, Fe, Mn, Si, Na, Zr, Ce, and P.
A pharmaceutical composition comprising cytarabine and daunorubicin at a fixed, non-antagonistic molar ratio of cytarabine to daunorubicin of about 5:1 for use in treating acute myeloid leukemia or acute lymphoblastic leukemia in a human patient, wherein said fixed, non-antagonistic molar ratio of cytarabine to daunorubicin is encapsulated in liposomes that comprise distearoyl phosphatidyl choline (DSPC), distearoyl phosphatidyl glycerol (DSPG) and cholesterol in a DSPC:DSPG:cholesterol molar ratio of 7:2:1; wherein a dose of said composition is to be intravenously administered in 3 hours or less; wherein the dose of said composition is 32-134 units per m 2, wherein 1 unit is 1 mg cytarabine and 0.44 mg daunorubicin; and wherein said composition is to be administered on a day 1, 3 and 5 dosage schedule.
An RJ45 plug with a plug housing, which has an insertion opening for insertion of a cable, and a tension relief device, which is designed to clamp the cable externally on the plug housing, wherein the tension relief device comprises a first and a second clamping element (11, 12), which are arranged on the plug housing on sides of the insertion opening that are opposite in the peripheral direction, the first clamping element is held on the plug housing pivotably in the direction of the second clamping element, and the tension relief device comprises fixing means (16, 17), with which the first clamping element can be fixed relative to the second clamping element in a plurality of pivot positions, characterised in that the first clamping element has an arc shape on its side facing the second clamping element, wherein the arc is concave in the longitudinal direction of the cable.