mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a pharmaceutical composition comprising a crystalline form of Febuxostat having an X-ray powder diffraction pattern as measured using CuKα 1,2 radiation having a wavelength of 0.15419 nm comprising peaks at 2-theta angles of 6.6 ± 0.2°, 12.8 ± 0.2°, 24.5 ± 0.2, 25.8 ± 0.2°, 26.6 ± 0.2° and being characterized by an IR spectrum comprising absorption bands at wavenumbers of about 2960 ± 2 cm -1, 2874 ± 2 cm -1, 2535 ± 2 cm -1, 2229 ± 2 cm -1, 1673 ± 2 cm -1, 1605 ± 2 cm -1, 1509 ± 2 cm -1, 1422 ± 2 cm -1, 1368 ± 2 cm -1, 1323 ± 2 cm -1, 1274 ± 2 cm -1, 1166 ± 2 cm -1, 1116 ± 2 cm -1, 1045 ± 2 cm -1, 1013 ± 2 cm -1, 911 ± 2 cm -1, 820 ± 2 cm -1, 763 ± 2 cm -1 and 725 ± 2 cm -1 when measured using a diamond attenuated total reflection cell, the method including: mixing said crystalline form of Febuxostat with suitable excipients in a suitable mixer, and then directly compressing the mixture to tablets, or employing a dry granulation step so as to produce granules suitable for tablet production, or employing a wet granulation step. mixing said crystalline form of Febuxostat with suitable excipients in a suitable mixer, and then directly compressing the mixture to tablets, or employing a dry granulation step so as to produce granules suitable for tablet production, or employing a wet granulation step.
Extrusion die for outputting a variable profile strand, at least comprising: a. an extrusion die body, b. a die orifice in the extrusion die body, wherein the die orifice comprises a main orifice for shaping the profile strand and a bulge connected to the main orifice for shaping a lip connected to the profile strand, c. a slide in front of the die orifice, wherein the slide comprises a first sub-slide and a second sub-slide arranged one behind the other and connected to each other by a sliding guide, wherein the first sub-slide and the second sub-slide are coupled to each other in movement and wherein the first sub-slide is vertically displaceable in order to reduce the size of the main orifice and the second sub-slide is horizontally displaceable in order to reduce the size of the bulge. a. an extrusion die body, b. a die orifice in the extrusion die body, wherein the die orifice comprises a main orifice for shaping the profile strand and a bulge connected to the main orifice for shaping a lip connected to the profile strand, c. a slide in front of the die orifice, wherein the slide comprises a first sub-slide and a second sub-slide arranged one behind the other and connected to each other by a sliding guide, wherein the first sub-slide and the second sub-slide are coupled to each other in movement and wherein the first sub-slide is vertically displaceable in order to reduce the size of the main orifice and the second sub-slide is horizontally displaceable in order to reduce the size of the bulge.
A laser radar device comprising: a light source generating laser light; an optical distributor distributing the laser light from the light source; a pulse modulator converting a part of the laser light distributed from the optical distributor into a pulse; a transmission side optical system outputting transmission light that is laser light converted into the pulse by the pulse modulator; a reception side optical system outputting reception light, which is reflection light of the transmission light that is reflected by an object; an optical coupler generating a combined signal by combining the reception light input from the reception side optical system and another part of the laser light distributed from the optical distributor; a signal processing unit performing a wind speed measuring process using the combined signal generated by the optical coupler; a beam scanning unit (10, 11) scanning with a laser beam; and an optical axis correction unit (12, 12A, 12B) correcting an optical axis angular shift generated between the transmission light and the reception light in association with beam scanning by the beam scanning unit, characterized in that the optical axis correction unit comprises a first correction unit (13, 13A, 13B) correcting an azimuth component of the optical axis angular shift and a second correction unit correcting an elevation angle component of the optical axis angular shift, and the first correction unit (13, 13A, 13B) is disposed separately from the second correction unit. a light source generating laser light; an optical distributor distributing the laser light from the light source; a pulse modulator converting a part of the laser light distributed from the optical distributor into a pulse; a transmission side optical system outputting transmission light that is laser light converted into the pulse by the pulse modulator; a reception side optical system outputting reception light, which is reflection light of the transmission light that is reflected by an object; an optical coupler generating a combined signal by combining the reception light input from the reception side optical system and another part of the laser light distributed from the optical distributor; a signal processing unit performing a wind speed measuring process using the combined signal generated by the optical coupler; a beam scanning unit (10, 11) scanning with a laser beam; and an optical axis correction unit (12, 12A, 12B) correcting an optical axis angular shift generated between the transmission light and the reception light in association with beam scanning by the beam scanning unit, characterized in that the optical axis correction unit comprises a first correction unit (13, 13A, 13B) correcting an azimuth component of the optical axis angular shift and a second correction unit correcting an elevation angle component of the optical axis angular shift, and the first correction unit (13, 13A, 13B) is disposed separately from the second correction unit.
A wireless terminal comprising: receiver unit configured to receive from an access node first access control information and to separately receive from the access node second access control information, the first access control information comprising first access barring information for a first core network, the second access control information comprising second access barring information for a second core network; processor unit configured to: generate an access attempt; perform, based on the first access barring information, a first access control procedure to determine whether the access attempt is allowed or barred for the first core network, and to perform, based on the second access barring information, a second access control procedure to determine whether the access attempt is allowed or barred for the second core network; and transmitter unit configured to transmit an access request for the first core network, in case that the access attempt is allowed by the first access control procedure and, an access request for the second core network, in case that the access attempt is barred by the first access control procedure but the access attempt is allowed by the second access control procedure. receiver unit configured to receive from an access node first access control information and to separately receive from the access node second access control information, the first access control information comprising first access barring information for a first core network, the second access control information comprising second access barring information for a second core network; processor unit configured to: generate an access attempt; perform, based on the first access barring information, a first access control procedure to determine whether the access attempt is allowed or barred for the first core network, and to perform, based on the second access barring information, a second access control procedure to determine whether the access attempt is allowed or barred for the second core network; and generate an access attempt; perform, based on the first access barring information, a first access control procedure to determine whether the access attempt is allowed or barred for the first core network, and to perform, based on the second access barring information, a second access control procedure to determine whether the access attempt is allowed or barred for the second core network; and transmitter unit configured to transmit an access request for the first core network, in case that the access attempt is allowed by the first access control procedure and, an access request for the second core network, in case that the access attempt is barred by the first access control procedure but the access attempt is allowed by the second access control procedure. an access request for the first core network, in case that the access attempt is allowed by the first access control procedure and, an access request for the second core network, in case that the access attempt is barred by the first access control procedure but the access attempt is allowed by the second access control procedure.
A turbomachine blade segment, comprising; a blade; and a mounting segment coupled to the blade, the mounting segment having a plurality of reinforcement pins laterally extending at least partially through a neck of the mounting segment, the neck of the mounting segment comprising a portion of the mounting segment that has a smallest thickness of the mounting segment, wherein the smallest thickness extends from a pressure side of the blade to a suction side of the blade, characterised in that at least one of the pins extends laterally through the smallest thickness of the mounting segment; and wherein none of the plurality of reinforcement pins extends through an outer surface of the mounting segment. a blade; and a mounting segment coupled to the blade, the mounting segment having a plurality of reinforcement pins laterally extending at least partially through a neck of the mounting segment, the neck of the mounting segment comprising a portion of the mounting segment that has a smallest thickness of the mounting segment, wherein the smallest thickness extends from a pressure side of the blade to a suction side of the blade, characterised in that at least one of the pins extends laterally through the smallest thickness of the mounting segment; and wherein none of the plurality of reinforcement pins extends through an outer surface of the mounting segment.
An electrowetting optical device comprising a conductive liquid and a non-conductive liquid, said liquids being non miscible, having different refractive indices and forming an interface, characterised in that the conductive liquid comprises at least 5% by weight of a fluorinated organic salt, based on the total weight of the conductive liquid.
A tunable microring resonator, comprising: - a primary waveguide having first and second ends (110, 111); - a plurality of secondary waveguides each having a different length and each having first and second ends (112, 113); and - a Micro-Electro-Mechanical System (MEMS) adjustable to optically couple at least a first end of the primary waveguide with a first respective end of a selected secondary waveguide thereby allowing light to circulate within the tunable microring resonator. - a primary waveguide having first and second ends (110, 111); - a plurality of secondary waveguides each having a different length and each having first and second ends (112, 113); and - a Micro-Electro-Mechanical System (MEMS) adjustable to optically couple at least a first end of the primary waveguide with a first respective end of a selected secondary waveguide thereby allowing light to circulate within the tunable microring resonator.
Composition for washing keratin materials, characterized in that it comprises, in a cosmetically acceptable medium: - from 3% to 50% by weight, relative to the total weight of the composition, of one or more anionic surfactants, - one or more C 10 -C 30 liquid alcohols chosen from branched and/or unsaturated C 10 -C 30 alcohols, and - one or more nonionic associative polymers, the composition comprising one or more anionic surfactants chosen from alkyl sulfates and alkyl ether sulfates, in particular in the form of alkali metal or alkaline-earth metal salts, ammonium salts, amine salts or amino alcohol salts; and polyoxyalkylenated (C 6-24)alkyl ether carboxylic acids and salts thereof, in particular those comprising from 2 to 50 ethylene oxide units; and the said composition comprising one or more nonionic associative polymers chosen from, alone or as mixtures: - celluloses modified with groups comprising at least one fatty chain comprising at least 8 carbon atoms; and - polyurethane polyethers comprising in their chain both hydrophilic blocks usually of polyoxyethylenated nature and hydrophobic blocks, which may be aliphatic sequences alone and/or cycloaliphatic and/or aromatic sequences. - from 3% to 50% by weight, relative to the total weight of the composition, of one or more anionic surfactants, - one or more C 10 -C 30 liquid alcohols chosen from branched and/or unsaturated C 10 -C 30 alcohols, and - one or more nonionic associative polymers, - celluloses modified with groups comprising at least one fatty chain comprising at least 8 carbon atoms; and - polyurethane polyethers comprising in their chain both hydrophilic blocks usually of polyoxyethylenated nature and hydrophobic blocks, which may be aliphatic sequences alone and/or cycloaliphatic and/or aromatic sequences.
A connector (1, 21, 41) comprising at least two springs (6, 26, 46) provided with locking projections (6E, 26E, 46E), respectively, and a control mechanism (7, 8, 27, 28, 42A8, 47, 50, 51) for controlling positions of the locking projections (6E, 26E, 46E) by elastically deforming the two springs (6, 26, 46), the control mechanism comprising a single button (7, 27, 47) and a cam mechanism (8, 28, 42A8, 50, 51), which is coupled to the single button (7, 27, 47) and has two cam portions (8B, 28, 50) arranged close to the two springs (6, 26, 46) so that, when the single button (7, 27, 47) is operated, the two cam portions (8B, 28, 42A8, 50, 51) add forces corresponding to the operation of the single button (7, 27, 47) to the two springs (6, 26, 46) simultaneously to elastically deform the two springs (6, 26, 46), the connector (1, 21, 41) further comprising in a first direction an opening (2A5, 22A5, 42A5) through which the single button (7, 27, 47) partially projects outside the connector (1, 21, 41), wherein: the two springs (6, 26, 46) are arranged parallel to each other in a second direction perpendicular to the first direction; the locking projections (6E, 26E, 46E) are arranged parallel to each other in the second direction; and the cam mechanism (8, 28, 42A8, 50, 51) is coupled to the single button (7, 27, 47) within the connector (1, 21, 41) so that the two cam portions (8B, 28, 50) are arranged close to the two springs (6, 26, 46) in the second direction, characterized in that the cam mechanism includes two slanting side portions as the cam portions, whose surfaces lie diagonally across both the first and the second directions and which add the forces to the two springs, respectively, in the second direction when the single button is pushed down in the first direction.
A thin-film transistor on a substrate, comprising: a source electrode; a drain electrode; a channel layer; a gate electrode; and a gate insulating film between the channel layer and the gate electrode; wherein the channel layer is an amorphous oxide including at least one element selected from the group consisting of Sn, In, and Zn; characterized in that the gate insulating film is amorphous silicon oxynitride with decreasing oxygen concentration from an interface with the channel layer towards the gate electrode to suppress the occurrence of oxygen defects in the interface between the oxide semiconductor layer and the gate insulating film. a source electrode; a drain electrode; a channel layer; a gate electrode; and a gate insulating film between the channel layer and the gate electrode; wherein the channel layer is an amorphous oxide including at least one element selected from the group consisting of Sn, In, and Zn; characterized in that the gate insulating film is amorphous silicon oxynitride with decreasing oxygen concentration from an interface with the channel layer towards the gate electrode to suppress the occurrence of oxygen defects in the interface between the oxide semiconductor layer and the gate insulating film.
A method of making a Yarrowia lipolytica cell capable of producing proteins comprising GlcNAc 2 Man 3 GlcNAc 2 N-glycans, said method comprising: a) providing a Yarrowia lipolytica cell genetically engineered to produce proteins comprising Man 3 GlcNAc 2 N-glycans, wherein said cell is deficient in ALG3 activity and comprises a nucleic acid encoding an α-1,2-mannosidase, said nucleic acid comprising a nucleotide sequence encoding a targeting sequence to target the encoded α-1,2-mannosidase to the endoplasmic reticulum, and wherein said cell further comprises a nucleic acid encoding ALG6; b) introducing into said cell a nucleic acid encoding a GlcNAc-transferase I, wherein said nucleic acid comprises a nucleotide sequence encoding a targeting sequence to target said encoded GlcNAc-transferase I to an intracellular compartment, and a nucleic acid encoding a GlcNAc-transferase II, wherein said nucleic acid comprises a nucleotide sequence encoding a targeting sequence to target said encoded GlcNAc-transferase II to an intracellular compartment, wherein expression of said GlcNAc-transferase I and said GlcNAc-transferase II in said Yarrowia lipolytica cell produces proteins comprising GlcNAc 2 Man 3 GlcNAc 2 N-glycans. a) providing a Yarrowia lipolytica cell genetically engineered to produce proteins comprising Man 3 GlcNAc 2 N-glycans, wherein said cell is deficient in ALG3 activity and comprises a nucleic acid encoding an α-1,2-mannosidase, said nucleic acid comprising a nucleotide sequence encoding a targeting sequence to target the encoded α-1,2-mannosidase to the endoplasmic reticulum, and wherein said cell further comprises a nucleic acid encoding ALG6; b) introducing into said cell a nucleic acid encoding a GlcNAc-transferase I, wherein said nucleic acid comprises a nucleotide sequence encoding a targeting sequence to target said encoded GlcNAc-transferase I to an intracellular compartment, and a nucleic acid encoding a GlcNAc-transferase II, wherein said nucleic acid comprises a nucleotide sequence encoding a targeting sequence to target said encoded GlcNAc-transferase II to an intracellular compartment, wherein expression of said GlcNAc-transferase I and said GlcNAc-transferase II in said Yarrowia lipolytica cell produces proteins comprising GlcNAc 2 Man 3 GlcNAc 2 N-glycans.
A method of preparing a structured round fabric using a circular weaving method, wherein along a round of a weft yarn, a number of n warp yarn (2, 3) are brought into an outer position and/or an inner position with respect to said weft yarn, decoupled from the movement of said weft yarn, wherein the warp yarns arranged in the outer position and the warp yarns arranged in the inner position each respectively form groups (10, 11, 12, 20, 21, 22), which groups (10, 11, 12, 20, 21, 22) are separated by the weft yarn extending between the warp yarns (2, 3), or which groups (10, 11, 12, 20, 21, 22) are arranged at a distance to one another along the weft yarn, characterised in that a different number of warp yarns in the groups of the inner warp yarns (20, 21, 22) or a different number of warp yarns in the groups of the outer warp yarns (10, 11, 12) are arranged along a round and along further rounds of the weft yarn to change the cross-section. wherein along a round of a weft yarn, a number of n warp yarn (2, 3) are brought into an outer position and/or an inner position with respect to said weft yarn, decoupled from the movement of said weft yarn, wherein the warp yarns arranged in the outer position and the warp yarns arranged in the inner position each respectively form groups (10, 11, 12, 20, 21, 22), which groups (10, 11, 12, 20, 21, 22) are separated by the weft yarn extending between the warp yarns (2, 3), or which groups (10, 11, 12, 20, 21, 22) are arranged at a distance to one another along the weft yarn, characterised in that a different number of warp yarns in the groups of the inner warp yarns (20, 21, 22) or a different number of warp yarns in the groups of the outer warp yarns (10, 11, 12) are arranged along a round and along further rounds of the weft yarn to change the cross-section.
A microfluidic device for manipulating particles of at least one given type of a sample, the device being designed to be connected to an apparatus and comprising: a connection unit for connecting the device itself to the apparatus, which is external to the device; a microfluidic system, which in turn comprises at least one inlet (4; 4'), at least one outlet (5; 5'), and at least one microfluidic chamber (6; 6') for manipulating the particles of the given type; and a non-volatile rewritable memory containing information on the device chosen in the group consisting of: information on the type of device, information on how the device is to be made to work, at least one identifier of the device, and a combination thereof; the microfluidic device being designed so that the driving of actuators of the device is carried out by the apparatus; said microfluidic chamber is designed to move selectively the particles of the given type with respect to other particles of the sample; the microfluidic chamber comprising a plurality of actuators for moving the particles; the information on the device comprising an identification of the faulty actuators for moving the particles.