mhurhangee/ep-ind-claims huggingface dataset:
A set of impact attenuators comprising at least two impact attenuators connected together, each having a deformable element with a first and a second end as well as a system for deformation of the deformable element having a casing with an empty space and a guide sliding along the casing, whereby the deformable element (20, 120, 220, 320) is located in the empty space (31, 131) of the casing (30, 130, 230, 330) and the deformable element (20, 120, 220, 320) at the first end (21, 121, 321) located outside the empty space (31, 131) of the casing (30, 130, 230, 330) has a grip (22, 122) to fix to the guide (40, 140, 240, 340), whereas the second end (23, 123) of the deformable element (20, 120, 220, 320) is free and between the first end (21, 121, 321) and the second end (23, 123) of the deformable element (20, 120, 220, 320) there is a bend with a deformation zone (24, 124) of the deformable element (20, 120, 220, 320), which translocates during pulling out of the deformable element (20, 120, 220, 320) from the casing (30, 130, 230, 330) during moving of the guide (40, 140, 240, 340) in relation to the casing (30, 130, 230, 330) of the deformable element (20, 120, 220, 320) and each cross-section of the deformable element (20, 120, 220, 320) in every point of a pulled out part of the deformable element (20, 120, 220, 320) is selected in such a way that value of the force causing pulling out of the deformable element (20, 120, 220, 320) from the casing (30, 130, 230, 330) and its deformation occurring at an outlet (33, 133) of the empty space (31, 131) of the casing (30, 130, 230, 330) is lower than value of the force that would cause tearing off of the deformable element (20, 120, 220, 320) and the cross-section of a compressed part of the casing (30, 130, 230, 330) in each its point is selected in such a way that value of the force causing pulling out of the deformable element (20, 120, 220, 320) from the casing (30, 130, 230, 330) and its deformation occurring at the outlet (33, 133) of the empty space (31, 131) of the casing (30, 130, 230, 330) is lower than value of the force which would cause deformation of the casing (30, 130, 230, 330), whereby the set has pairs of the impact attenuators connected in parallel, the guides of the impact attenuators forming a first pair being connected together via a front connecting beam adapted to be connected to a hitch system, whereas the casings of their deformable elements of the first pair of attenuators are connected together via a middle beam, to which are attached guides of the impact attenuators of a next pair of attenuators, whereas the casings of the deformable elements of the next pair of the attenuators are connected together via elements of a rear impact system or, alternatively, connected together via a next middle beam to which are attached the guides of the impact attenuators of a further pair of attenuators, whereby the casings of the further pair or last pair of the impact attenuators are connected together via elements of the rear impact system.
A method of making a solid catalyst component for production of a polyolefin, the method comprising: a) dissolving a halide-containing magnesium compound in a mixture comprising alkylepoxide, an organic phosphorous compound, a carboxylic acid or anhydride, and a hydrocarbon solvent to form a homogenous solution; b) optionally treating the homogeneous solution with a halogenating agent; c) treating the homogenous solution with a first titanium compound in the presence of a surface modifier and a first electron donor that is a di-(C 1 -C 12)alkyl ether to form a solid precipitate; d) optionally treating the solid precipitate with a second electron donor; and e) treating the solid precipitate with a second titanium compound and optionally with a second electron donor to form the solid catalyst component, wherein the first titanium compound and the second titanium compound are each independently represented by: Ti g X 4-g; each R group independently represents an alkyl group having 1 to 4 carbon atoms; X represents Br, Cl, or I; and g is a whole number satisfying the formula 0≦g≦4. a) dissolving a halide-containing magnesium compound in a mixture comprising alkylepoxide, an organic phosphorous compound, a carboxylic acid or anhydride, and a hydrocarbon solvent to form a homogenous solution; b) optionally treating the homogeneous solution with a halogenating agent; c) treating the homogenous solution with a first titanium compound in the presence of a surface modifier and a first electron donor that is a di-(C 1 -C 12)alkyl ether to form a solid precipitate; d) optionally treating the solid precipitate with a second electron donor; and e) treating the solid precipitate with a second titanium compound and optionally with a second electron donor to form the solid catalyst component, each R group independently represents an alkyl group having 1 to 4 carbon atoms; X represents Br, Cl, or I; and g is a whole number satisfying the formula 0≦g≦4.
A method to analyse hair composition, based on processing light patterns obtained from a microscope digital picture in polarized light of a hair sample, wherein the amount of each analyte present in the hair sample is calculated via unmixing, the method comprising a) a calibration phase, wherein the light patterns of pure analytes are constructed taking one or more microscope digital pictures in polarized light of said pure analytes; b) a measuring phase, wherein the light pattern of the hair sample is constructed taking one or more microscope digital pictures in polarized light of said hair sample; each of said light patterns being a construction of a spectral pattern from microscope digital picture, wherein each point (pixel) of the picture is characterized by its wavelength and absorbance; c) a determination phase, wherein the light patterns of a) and b) are compared and elaborated via software-assisted unmixing, thereby determining the relative contribution of each analyte present in the hair sample, and therefrom its absolute amount or concentration characterized in that: prior to said measuring phase b) a conditioning phase is performed, comprising storing the hair sample, during a period of time of at least half a day, in a sealed container made of a polyethylene or a polymer being in a position lower than polyethylene in the triboelectric series; then opening said container, extracting a set of hair and contacting said set of hair with a turpentine oil. a) a calibration phase, wherein the light patterns of pure analytes are constructed taking one or more microscope digital pictures in polarized light of said pure analytes; b) a measuring phase, wherein the light pattern of the hair sample is constructed taking one or more microscope digital pictures in polarized light of said hair sample; each of said light patterns being a construction of a spectral pattern from microscope digital picture, wherein each point (pixel) of the picture is characterized by its wavelength and absorbance; c) a determination phase, wherein the light patterns of a) and b) are compared and elaborated via software-assisted unmixing, thereby determining the relative contribution of each analyte present in the hair sample, and therefrom its absolute amount or concentration characterized in that: prior to said measuring phase b) a conditioning phase is performed, comprising storing the hair sample, during a period of time of at least half a day, in a sealed container made of a polyethylene or a polymer being in a position lower than polyethylene in the triboelectric series; then opening said container, extracting a set of hair and contacting said set of hair with a turpentine oil.
A multi-use disposable set (MUDS) comprising: at least one syringe having a proximal end and a distal end spaced apart from the proximal end along a longitudinal axis, and a plunger reciprocally movable within a syringe interior between the proximal end and the distal end; a manifold in fluid communication with the distal end of the at least one syringe; at least one valve at a distal end of the at least one syringe and in fluid communication with the syringe interior, wherein the at least one valve is operable between a filling position for filling the syringe interior with fluid and a delivery position for delivering the fluid from the syringe interior; at least one connection port in fluid communication with the manifold and the syringe interior when the at least one valve is in the delivery position, characterized in that said at least one valve is adapted for connection to a coupling mechanism of a fluid injector, said coupling mechanism having a rotatable coupling having a blade for coupling between the coupling mechanism and said at least one valve, wherein the at least one valve comprises a valve head with a slot recessed into the valve head, wherein the slot has a lip on one end of the slot which limits an orientation of the blade of the coupling mechanism of the fluid injector system to a single self-aligned orientation. at least one syringe having a proximal end and a distal end spaced apart from the proximal end along a longitudinal axis, and a plunger reciprocally movable within a syringe interior between the proximal end and the distal end; a manifold in fluid communication with the distal end of the at least one syringe; at least one valve at a distal end of the at least one syringe and in fluid communication with the syringe interior, wherein the at least one valve is operable between a filling position for filling the syringe interior with fluid and a delivery position for delivering the fluid from the syringe interior; at least one connection port in fluid communication with the manifold and the syringe interior when the at least one valve is in the delivery position, characterized in that said at least one valve is adapted for connection to a coupling mechanism of a fluid injector, said coupling mechanism having a rotatable coupling having a blade for coupling between the coupling mechanism and said at least one valve, wherein the at least one valve comprises a valve head with a slot recessed into the valve head, wherein the slot has a lip on one end of the slot which limits an orientation of the blade of the coupling mechanism of the fluid injector system to a single self-aligned orientation.
A method for producing acrylonitrile, the method comprising a vapor phase catalytic ammoxidation process of performing vapor phase catalytic ammoxidation by bringing a source gas containing propylene, molecular oxygen, and ammonia into contact with a fluidized bed catalyst (a) to obtain acrylonitrile, wherein the fluidized bed catalyst (a) is a catalyst containing molybdenum and bismuth, and the vapor phase catalytic ammoxidation process is performed while maintaining an adsorbed amount of ammonia per specific surface area (m 2 /g) of the fluidized bed catalyst (a) in the range of 0.05 to 0.6 μmol/m 2, wherein the adsorbed amount of ammonia per specific surface area (m 2 /g) of the fluidized bed catalyst (a) in the range of 0.05 to 0.6 μmol/m 2 is maintained by increasing the ammonia adsorption amount, wherein the method for increasing the amount of ammonia adsorbed on the fluidized bed catalyst (a) during the vapor phase catalytic ammoxidation process comprises adding at least one kind of a molybdenum compound, wherein the fluidized bed catalyst (a) is represented by the following Formula: Mo 12 Bi a Fe b A c D d E e G f O x (SiO 2) y wherein in Formula, Mo, Bi, Fe, O, and SiO 2 represent molybdenum, bismuth, iron, oxygen, and silica, respectively, A represents at least one kind of element selected from the group consisting of nickel, cobalt, zinc, magnesium, manganese, and copper, D represents at least one kind of element selected from the group consisting of lanthanum, cerium, praseodymium, neodymium, and samarium, E represents at least one kind of element selected from the group consisting of lithium, sodium, potassium, rubidium, and cesium, G represents at least one kind of element selected from the group consisting of calcium, strontium, barium, cadmium, titanium, zirconium, vanadium, niobium, tantalum, chromium, tungsten, germanium, tin, yttrium, aluminum, gallium, ruthenium, rhodium, palladium, rhenium, osmium, iridium, platinum, silver, boron, phosphorus, antimony, and tellurium, and a, b, c, d, e, f, x, and y represent an atomic ratio, a is 0.1 to 5, b is 0.1 to 10, c is 2 to 12, d is 0.01 to 5, e is 0.01 to 2, f is 0 to 10, y is 20 to 200, and x is the number of oxygen atom required to satisfy the valence of each of the components except silica.
A method for preventing agglomeration in a mixture of xylitol and calcium aspartate, comprising adjusting and measuring water activities of xylitol particles and calcium aspartate particles; and mixing calcium aspartate particles with a water activity in a range of 0.50-0.52 and xylitol particles with a water activity in a range of 0.48-0.56; or adding maltitol particles with a weight ratio of 5%-20% to the xylitol particles to a mixture of the calcium aspartate particles and the xylitol particles, wherein particle sizes of the xylitol particles are in a range of 2.000 mm (10 mesh) to 0.177 mm (80 mesh).
Use of Fischer-Tropsch derived base oil in a lubricating composition for reducing the occurrence of Low Speed Pre-Ignition (LSPI) in an internal combustion engine.
A method for wireless data communication, comprising: determining whether to operate in a frequency hopping mode based on a received frequency hopping value; transmitting, in a first subframe, a first plurality of data transmissions over a plurality of slots of the first subframe using a first plurality of precoding vectors at a first frequency, if it is determined to operate in the frequency hopping mode; and transmitting, in a second subframe, a second plurality of data transmissions over a plurality of slots of the second subframe using a second plurality of precoding vectors at a second frequency different from the first frequency, if it is determined to operate in the frequency hopping mode, wherein the second plurality of precoding vectors is different from the first plurality of precoding vectors; and further wherein the second plurality of data transmissions are retransmissions of the first plurality of data transmissions; wherein more than one different precoding vectors are used and vary for each slot of the plurality of slots of the first and the second subframes. determining whether to operate in a frequency hopping mode based on a received frequency hopping value; transmitting, in a first subframe, a first plurality of data transmissions over a plurality of slots of the first subframe using a first plurality of precoding vectors at a first frequency, if it is determined to operate in the frequency hopping mode; and transmitting, in a second subframe, a second plurality of data transmissions over a plurality of slots of the second subframe using a second plurality of precoding vectors at a second frequency different from the first frequency, if it is determined to operate in the frequency hopping mode, wherein the second plurality of precoding vectors is different from the first plurality of precoding vectors; and further wherein the second plurality of data transmissions are retransmissions of the first plurality of data transmissions; wherein more than one different precoding vectors are used and vary for each slot of the plurality of slots of the first and the second subframes.
A shisha device comprising: a first device inlet (16, 16'); a device outlet; an aerosol chamber configured to house a consumable comprising an aerosol-generating substrate, wherein the aerosol chamber comprises a chamber inlet and a chamber outlet (18, 132); and a vessel comprising an interior configured to contain liquid when the device is in use, wherein the vessel comprises a vessel inlet (3, 16) and a vessel outlet, wherein the device is configured such that, in use, airflow through the aerosol chamber that exits the chamber outlet (18, 132) exits the device outlet bypassing the liquid stored in the vessel, wherein the device comprises an airflow path from the first device inlet to the vessel inlet (3, 16) to the vessel outlet to the chamber inlet to the chamber outlet (18, 132) and then to the device outlet. a first device inlet (16, 16'); a device outlet; an aerosol chamber configured to house a consumable comprising an aerosol-generating substrate, wherein the aerosol chamber comprises a chamber inlet and a chamber outlet (18, 132); and a vessel comprising an interior configured to contain liquid when the device is in use, wherein the vessel comprises a vessel inlet (3, 16) and a vessel outlet, wherein the device is configured such that, in use, airflow through the aerosol chamber that exits the chamber outlet (18, 132) exits the device outlet bypassing the liquid stored in the vessel, wherein the device comprises an airflow path from the first device inlet to the vessel inlet (3, 16) to the vessel outlet to the chamber inlet to the chamber outlet (18, 132) and then to the device outlet.
A method of encoding video data, the method comprising: encoding a current picture of video data; including, in a slice header for a first slice of a plurality of slices of the current picture, a syntax element, slice_temporal_mvp_enabled_flag, indicating that temporal motion vector predictors are enabled for the first slice; and including, in a second slice header for a second slice of the plurality of slices a syntax element indicating that temporal motion vector predictors are disabled for the second slice; generating a respective collocated reference picture index syntax element for one or more slices of the current picture, the generating comprising requiring for a bitstream conformance that, for all slices of the plurality of slices for which slice_temporal_mvp_enabled_flag for the particular slice is equal to a value indicating that a temporal motion vector predictor is enabled for the particular slice, each respective collocated reference picture index syntax element for the respective slices of the current picture points to the same picture and does not reference the current picture itself. encoding a current picture of video data; including, in a slice header for a first slice of a plurality of slices of the current picture, a syntax element, slice_temporal_mvp_enabled_flag, indicating that temporal motion vector predictors are enabled for the first slice; and including, in a second slice header for a second slice of the plurality of slices a syntax element indicating that temporal motion vector predictors are disabled for the second slice; generating a respective collocated reference picture index syntax element for one or more slices of the current picture, the generating comprising requiring for a bitstream conformance that, for all slices of the plurality of slices for which slice_temporal_mvp_enabled_flag for the particular slice is equal to a value indicating that a temporal motion vector predictor is enabled for the particular slice, each respective collocated reference picture index syntax element for the respective slices of the current picture points to the same picture and does not reference the current picture itself.
A method of avoiding protocol misinterpretation in a tire pressure monitoring system, the method comprising: determining whether a frame of a signal to be transmitted according to a first protocol is susceptible to being incorrectly interpreted by a receiver in a vehicle as being transmitted according to a second protocol; when the frame is determined to be susceptible to an incorrect interpretation, adjusting an internal value of the frame, the adjusting being effective to prevent an incorrect interpretation of the frame being transmitted from the tire pressure monitor to the receiver, characterized in that the signal includes a burst (402, 420) that includes plurality of frames (404, 406, 408, 422, 424, 426) and each of the frames (404, 406, 408, 422, 424, 426) includes tire pressure monitoring information. determining whether a frame of a signal to be transmitted according to a first protocol is susceptible to being incorrectly interpreted by a receiver in a vehicle as being transmitted according to a second protocol; when the frame is determined to be susceptible to an incorrect interpretation, adjusting an internal value of the frame, the adjusting being effective to prevent an incorrect interpretation of the frame being transmitted from the tire pressure monitor to the receiver, characterized in that the signal includes a burst (402, 420) that includes plurality of frames (404, 406, 408, 422, 424, 426) and each of the frames (404, 406, 408, 422, 424, 426) includes tire pressure monitoring information.
An electrically insulating coating containing a polymer which comprises a base polymer and modifier units that are incompatible with the base polymer after the polymer is cured, in which the base polymer is selected from the group consisting of polyamide-imides, polyester-imides, polyamides, polyurethanes, polyimides, polyesteramide-imides, polyepoxides, mixtures or combinations thereof, wherein the modifier units are polydialkylsiloxanes containing 40 to 500 Si units.
A multi-aperture imaging device comprising: an array of optical channels (16a-h), wherein each optical channel (16a-h) comprises optics (64a-h) for imaging a partial field of view (72a-d) of a total field of view onto an image sensor region (24a-h) of an image sensor; beam-deflecting means for deflecting an optical path (26a-h) of the optical channels (16a-h) to a viewing direction (27 1 or 27 2) of the multi-aperture imaging device; and a diaphragm structure (22; 22') arranged to at least partly close a gap (29 1, 29 2) between the array and the beam-deflecting means; wherein the array comprises, arranged at a distance to the beam-deflecting means, a carrier for holding the optics (64a-h), a housing of the array or a transparent structure (42a, 42b) configured to at least partly reduce the entrance of particles to the beam-deflecting means, the distance forming the gap (29 1, 29 2); and wherein the diaphragm structure (22; 22') closes the gap by mechanical contact with the carrier, the housing or the transparent structure (42a, 42b) on the one hand and the beam-deflecting means on the other hand. an array of optical channels (16a-h), wherein each optical channel (16a-h) comprises optics (64a-h) for imaging a partial field of view (72a-d) of a total field of view onto an image sensor region (24a-h) of an image sensor; beam-deflecting means for deflecting an optical path (26a-h) of the optical channels (16a-h) to a viewing direction (27 1 or 27 2) of the multi-aperture imaging device; and a diaphragm structure (22; 22') arranged to at least partly close a gap (29 1, 29 2) between the array and the beam-deflecting means; wherein the array comprises, arranged at a distance to the beam-deflecting means, a carrier for holding the optics (64a-h), a housing of the array or a transparent structure (42a, 42b) configured to at least partly reduce the entrance of particles to the beam-deflecting means, the distance forming the gap (29 1, 29 2); and wherein the diaphragm structure (22; 22') closes the gap by mechanical contact with the carrier, the housing or the transparent structure (42a, 42b) on the one hand and the beam-deflecting means on the other hand.