mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing an article, said method comprising: applying a first composition having a first refractive index (RI 1) on a substrate to form a first layer comprising the first composition on the substrate; applying a curing condition to a discrete target portion of the first layer, without applying the curing condition to a non-target portion of the first layer, to form a contrast layer including at least one cured portion and at least one uncured portion; applying a second composition having a second refractive index (RI 2) on the contrast layer to form a second layer; mixing at least a portion of the second layer and the at least one uncured portion of the contrast layer to form at least one intermixed portion having a third refractive index (RI 3) in the contrast layer; and wherein the first and second composition and the at least one intermixed portion are different from one another; wherein RI 1, RI 2, and RI 3 are different from one another when measured at a same wavelength light and temperature; and further comprising curing the second layer and the at least one intermixed portion of the contrast layer, thereby forming an article sequentially comprising the substrate, contrast layer including the at least one cured portion and at least one cured intermixed portion wherein the cured portions and the cured intermixed portions are arrayed in an alternating arrangement in the contrast layer, and a cured second layer. applying a first composition having a first refractive index (RI 1) on a substrate to form a first layer comprising the first composition on the substrate; applying a curing condition to a discrete target portion of the first layer, without applying the curing condition to a non-target portion of the first layer, to form a contrast layer including at least one cured portion and at least one uncured portion; applying a second composition having a second refractive index (RI 2) on the contrast layer to form a second layer; mixing at least a portion of the second layer and the at least one uncured portion of the contrast layer to form at least one intermixed portion having a third refractive index (RI 3) in the contrast layer; and wherein the first and second composition and the at least one intermixed portion are different from one another; wherein RI 1, RI 2, and RI 3 are different from one another when measured at a same wavelength light and temperature; and further comprising curing the second layer and the at least one intermixed portion of the contrast layer, thereby forming an article sequentially comprising the substrate, contrast layer including the at least one cured portion and at least one cured intermixed portion wherein the cured portions and the cured intermixed portions are arrayed in an alternating arrangement in the contrast layer, and a cured second layer.
A compound represented by formula: wherein: R 1 is selected from the group consisting of: a halogenated methoxy group, a halogenated ethoxy group, a halogenated isopropoxy group, and a halogenated tert-butoxy group; and R 2 is selected from the group consisting of a halogen, an alkyl group, a halogenated alkyl group, an aryl group, and a halogenated aryl group, or a pharmaceutically acceptable salt thereof. R 1 is selected from the group consisting of: a halogenated methoxy group, a halogenated ethoxy group, a halogenated isopropoxy group, and a halogenated tert-butoxy group; and R 2 is selected from the group consisting of a halogen, an alkyl group, a halogenated alkyl group, an aryl group, and a halogenated aryl group, or a pharmaceutically acceptable salt thereof.
A method of removing non-specific binding constituents from a protein containing stream comprising: flowing the protein containing stream through a protein purification system comprising a prefilter, the prefilter comprising one or more layers of one or more media selected to remove non-specific binding constituents from the protein containing stream, wherein the prefilter is upstream of and in fluid communication with an affinity chromatography column, further wherein the media is comprised of a material selected from the group consisting of hydrophobic entities, lipophilic entities, activated carbon, charged cation or anion entities, ligands and derivitized version of each, and combinations thereof. flowing the protein containing stream through a protein purification system comprising a prefilter, the prefilter comprising one or more layers of one or more media selected to remove non-specific binding constituents from the protein containing stream, wherein the prefilter is upstream of and in fluid communication with an affinity chromatography column, further wherein the media is comprised of a material selected from the group consisting of hydrophobic entities, lipophilic entities, activated carbon, charged cation or anion entities, ligands and derivitized version of each, and combinations thereof.
Display system comprising a screen and an optical collimation device forming the image of this screen at a first distance from said screen, said optical device comprising two holographic optical elements (HOE1, HOE2) operating by reflection, the first holographic optical element being closest to the screen, the second holographic optical element being closest to an observer, characterised in that: - the screen displaying a first object at a first wavelength and a second object at a second wavelength, the first wavelength being different to the second wavelength; - the first holographic optical element comprises a first holographic treatment having a first optical power reflecting the first wavelength and transmitting the second wavelength; - the first holographic optical element comprises a second holographic treatment having a second optical power reflecting the second wavelength and transmitting the first wavelength; - the second holographic optical element comprises a third holographic treatment having a third optical power reflecting the first wavelength and transmitting the second wavelength; - the second holographic optical element comprises a fourth holographic treatment having a fourth optical power reflecting the second wavelength and transmitting the first wavelength; - the first holographic element and the second holographic element being arranged in such a way that the image of the first object at the first wavelength forms at a first distance to the screen and that the image of the second object at the second wavelength forms at a second distance to the screen, substantially different to the first distance. - the screen displaying a first object at a first wavelength and a second object at a second wavelength, the first wavelength being different to the second wavelength; - the first holographic optical element comprises a first holographic treatment having a first optical power reflecting the first wavelength and transmitting the second wavelength; - the first holographic optical element comprises a second holographic treatment having a second optical power reflecting the second wavelength and transmitting the first wavelength; - the second holographic optical element comprises a third holographic treatment having a third optical power reflecting the first wavelength and transmitting the second wavelength; - the second holographic optical element comprises a fourth holographic treatment having a fourth optical power reflecting the second wavelength and transmitting the first wavelength; - the first holographic element and the second holographic element being arranged in such a way that the image of the first object at the first wavelength forms at a first distance to the screen and that the image of the second object at the second wavelength forms at a second distance to the screen, substantially different to the first distance.
An UMLILO IncRNA inhibitor for use in a method of treating an inflammatory condition, an autoimmune disorder or cancer in a subject by decreasing the production of ELR+ proinflammatory chemokines in the subject, the method comprising administering an effective amount of the UMLILO IncRNA inhibitor to the subject, wherein the UMLILO IncRNA is encoded by the sequence provided in SEQ ID NO:1, wherein the UMLILO IncRNA inhibitor is selected from the group consisting of antisense oligonucleotides, miRNAs, siRNAs, piRNAs, snRNAs, CAS9/CRISPR, TALENS, zinc finger nucleases and BUD1 nucleases.
Backpack having a back system which has a back part connected to a storage volume and having shoulder straps and hip straps, the back system having a support element which is operatively connected to the shoulder straps or the hip straps and whose support distance towards the back part is adjustable in order to position the latter, wherein the support element has at least one adjustable support tab (14, 16) which is located between the back part and the shoulder straps or the hip straps, respectively, wherein the support element has two relatively rigid support lugs (14, 16) which are spaced apart from each other and which are guided adjustably on a belt region, characterized in that the support lugs are stiffened by inserted rods or bars.
A method for manufacturing refined fats and oils, comprising: carrying out an adsorption treatment of bringing fats and oils into contact with clay and at least one kind of alkaline earth metal salt selected from the group consisting of calcium oxide, magnesium oxide and calcium silicate, wherein the amount of clay used in the adsorption treatment is 0.1 parts by weight or more and less than 2 parts by weight relative to 100 parts by weight of the fats and oils and the time for which the fats and oils are brought into contact with the clay is 3 to 180 minutes, wherein the amount of the alkaline earth metal salt used in the adsorption treatment is from 0.2 parts by weight or more to 10 parts by weight or less relative to 100 parts by weight of the fats and oils and the time for which the fats and oils are brought into contact with the alkaline earth metal salt is 3 to 180 minutes, and wherein the adsorption treatment of bringing the fats and oils into contact with the alkaline earth metal salt is carried out in the presence of water; and subsequently carrying out a deodorization treatment of bringing the resultant fats and oils into contact with water vapor at 180°C or less. carrying out an adsorption treatment of bringing fats and oils into contact with clay and at least one kind of alkaline earth metal salt selected from the group consisting of calcium oxide, magnesium oxide and calcium silicate, wherein the amount of clay used in the adsorption treatment is 0.1 parts by weight or more and less than 2 parts by weight relative to 100 parts by weight of the fats and oils and the time for which the fats and oils are brought into contact with the clay is 3 to 180 minutes, wherein the amount of the alkaline earth metal salt used in the adsorption treatment is from 0.2 parts by weight or more to 10 parts by weight or less relative to 100 parts by weight of the fats and oils and the time for which the fats and oils are brought into contact with the alkaline earth metal salt is 3 to 180 minutes, and wherein the adsorption treatment of bringing the fats and oils into contact with the alkaline earth metal salt is carried out in the presence of water; and subsequently carrying out a deodorization treatment of bringing the resultant fats and oils into contact with water vapor at 180°C or less.
A cooking apparatus comprising: a cooking surface; a leveling device constructed and arranged to adjust a position of the cooking surface relative to a horizontal plane; a dual-axis inclinometer configured to sense the position operatively engaged to an underside of the cooking surface; and an electronic controller configured to receive a position signal from the dual-axis inclinometer and output a command signal to the leveling device to adjust the position of the cooking surface relative to said horizontal plane. a cooking surface; a leveling device constructed and arranged to adjust a position of the cooking surface relative to a horizontal plane; a dual-axis inclinometer configured to sense the position operatively engaged to an underside of the cooking surface; and an electronic controller configured to receive a position signal from the dual-axis inclinometer and output a command signal to the leveling device to adjust the position of the cooking surface relative to said horizontal plane.
A wearable device, comprising a structure that is configured to be worn by a user, said structure having a first exposed surface and a second exposed surface, said second surface being located closer to the user than said first surface when the structure is being worn by the user, said structure comprising wireless communication means and comprising a patch antenna that is coupled to said wireless communication means to receive and/or transmit electromagnetic radiation, wherein said patch antenna comprises a substantially planar patch conductor and a substantially planar ground conductor that are separated by a dielectric ir between said patch conductor and said ground conductor while at least partially overlapping with one another laterally, wherein said structure comprises a core within a shell, said core comprising at least part of said communication means, wherein said shell comprises a first shell part that defines a first circumference of the device and comprises said first surface, wherein said shell comprises a second shell part that defines a second circumference of the device and comprises said second surface, wherein said first shell part and said second shell part are formed at least substantially of metal and are at least partially separated from one another by said dielectric, wherein said first shell part forms said patch conductor at said first exposec surface, wherein said second shell part forms said ground conductor at said second exposed surface, and wherein said first shell part and said second shell part together form said patch antenna, said dielectric is part of a dielectric member, and said dielectric member having a first portion that lies in between the first metal shell part and the second metal shell part and having a second portion that emerges laterally adjacent to a tip end of the patch conductor at an exposed surface of the first shell part.
A 3-position operating actuator comprising: a cylinder having both ends closed by pressing lids (16, 17) which are integral with or separate from the cylinder; a partition plate and an intermediate check plate affixed within the cylinder at suitable intervals in an axial direction; a first piston axially movable within the cylinder between one of the pressing lids (16, 17) and the intermediate check plate; a second piston axially movable within the cylinder between the intermediate check plate and the partition plate; a third piston axially movable within the cylinder between the partition plate and the other of the pressing lids (16, 17); a rod axially movable within the cylinder, wherein the rod has a base end attached to the third piston and a tip end which extends outside from the cylinder through the partition plate, the second piston, the intermediate check plate, the first piston, and one of the pressing lids (16, 17); characterised by a stopper affixed to a middle portion of the rod to move the first piston or the second piston when the rod moves. a cylinder having both ends closed by pressing lids (16, 17) which are integral with or separate from the cylinder; a partition plate and an intermediate check plate affixed within the cylinder at suitable intervals in an axial direction; a first piston axially movable within the cylinder between one of the pressing lids (16, 17) and the intermediate check plate; a second piston axially movable within the cylinder between the intermediate check plate and the partition plate; a third piston axially movable within the cylinder between the partition plate and the other of the pressing lids (16, 17); a rod axially movable within the cylinder, wherein the rod has a base end attached to the third piston and a tip end which extends outside from the cylinder through the partition plate, the second piston, the intermediate check plate, the first piston, and one of the pressing lids (16, 17); characterised by a stopper affixed to a middle portion of the rod to move the first piston or the second piston when the rod moves.
A pharmaceutical composition for reducing cholesterol content in a cell or plasma membrane of a cell for use in treating, inhibiting, preventing, or ameliorating a condition, or a symptom of said condition, said condition being diabetic nephropathy/diabetic kidney disease, said composition comprising at least one pharmaceutically acceptable excipient or vehicle and: a) an effective amount of hydroxypropyl beta cyclodextrin which reduces cellular cholesterol content by inhibiting cellular influx or increases cellular efflux of the cholesterol, and b) optionally, a second active pharmaceutical ingredient which is not a cyclodextrin. a) an effective amount of hydroxypropyl beta cyclodextrin which reduces cellular cholesterol content by inhibiting cellular influx or increases cellular efflux of the cholesterol, and b) optionally, a second active pharmaceutical ingredient which is not a cyclodextrin.
A method operable in a wireless telecommunications system operating in a radio frequency, RF, band, the method comprising: processing a transport block of data from a user equipment, UE, at an eNodeB, the transport block comprising a cyclic redundancy check, CRC, wherein the transport block further comprises an error correction code, ECC; determining (202, 277) a checksum of the transport block based on the CRC at the eNodeB; if the checksum fails, transmitting (204, 281, 291), from the eNodeB to the UE, a non-acknowledgement, NACK, of the transport block based on the failed checksum that directs the UE to increase (253, 295, 297) a contention window at the UE and re-transmit (255, 296, 298) the transport block to the eNodeB; storing the processed transport block in a buffer; performing error correction (206, 283) on the processed transport block using the ECC; and if the error correction is successful, sending an acknowledgement, ACK, of successful receipt of the processed transport block to the UE in response to correcting the errors. processing a transport block of data from a user equipment, UE, at an eNodeB, the transport block comprising a cyclic redundancy check, CRC, wherein the transport block further comprises an error correction code, ECC; determining (202, 277) a checksum of the transport block based on the CRC at the eNodeB; if the checksum fails, transmitting (204, 281, 291), from the eNodeB to the UE, a non-acknowledgement, NACK, of the transport block based on the failed checksum that directs the UE to increase (253, 295, 297) a contention window at the UE and re-transmit (255, 296, 298) the transport block to the eNodeB; storing the processed transport block in a buffer; performing error correction (206, 283) on the processed transport block using the ECC; and if the error correction is successful, sending an acknowledgement, ACK, of successful receipt of the processed transport block to the UE in response to correcting the errors.
A security feature having a luminescent component having at least one luminophore consisting of a doped host lattice, and a component camouflaging the luminescent component, characterized in that an identification of the luminescent component is impeded or prevented by properties of the camouflaging component and respective like-kind properties of the luminescent component being characterized by the following relations: a) the camouflaging component has an X-ray diffractogram that at least partly overlaps with the X-ray diffractogram of the luminescent component, in order to camouflage the structure of the luminescent component, b) the camouflaging component contains at least one cationic element that is also contained in a host lattice of the luminescent component, but not all cationic elements contained in this host lattice, in order to camouflage the stoichiometry of the luminescent component, c) the camouflaging component contains at least one cationic element that is not contained in a host lattice of the luminescent component, in order to camouflage the elemental constitution of this host lattice of the luminescent component, d) the camouflaging component contains at least one dopant that is not contained as a dopant in the luminescent component, in order to camouflage the dopant or dopants of the luminescent component, e) the camouflaging component contains at least one luminophore that has a lower decay time than the luminophore contained in the luminescent component, in order to camouflage the spectral properties of the luminescent component, and further characterized in that the camouflaging component and the luminescent component satisfy at least the relations a) and b). a) the camouflaging component has an X-ray diffractogram that at least partly overlaps with the X-ray diffractogram of the luminescent component, in order to camouflage the structure of the luminescent component, b) the camouflaging component contains at least one cationic element that is also contained in a host lattice of the luminescent component, but not all cationic elements contained in this host lattice, in order to camouflage the stoichiometry of the luminescent component, c) the camouflaging component contains at least one cationic element that is not contained in a host lattice of the luminescent component, in order to camouflage the elemental constitution of this host lattice of the luminescent component, d) the camouflaging component contains at least one dopant that is not contained as a dopant in the luminescent component, in order to camouflage the dopant or dopants of the luminescent component, e) the camouflaging component contains at least one luminophore that has a lower decay time than the luminophore contained in the luminescent component, in order to camouflage the spectral properties of the luminescent component,