mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for adjusting a position of artificial teeth (116, 136) of a denture, the adjusting comprising: providing a digital 3D model of the denture comprising at least a first denture part (101; 121), the first denture part (101; 121) being configured for a first jaw of a patient, the first denture part (101; 121) comprising a first dental arch (114; 134), the first dental arch (114; 134) comprising a first plurality of artificial teeth (116; 136) to be adjusted, the first plurality of artificial teeth (116; 136) being arranged in a first artificial gingiva (112; 132); defining a first deformable gingiva section (104; 124) of the first artificial gingiva (112; 132) with a first deformable geometrical form, the first deformable gingiva section (104; 124) being located between the teeth (116; 136) of the first plurality of artificial teeth and a first fixed gingiva section (102, 122) of the first artificial gingiva (112; 132) with a first fixed geometrical form; moving the first dental arch (114; 134) as a whole relative to the first fixed gingiva section (102, 122) in order to adjust the position of the first dental arch (114; 134) with the teeth (116; 136) of the first plurality of artificial teeth maintaining fixed positions relative to each other, the first deformable geometrical form of the first deformable gingiva section (104; 124) being deformed due to the moving of the first dental arch (114; 134), whereas the first fixed gingiva section (102, 122) maintains the first fixed geometrical form. providing a digital 3D model of the denture comprising at least a first denture part (101; 121), the first denture part (101; 121) being configured for a first jaw of a patient, the first denture part (101; 121) comprising a first dental arch (114; 134), the first dental arch (114; 134) comprising a first plurality of artificial teeth (116; 136) to be adjusted, the first plurality of artificial teeth (116; 136) being arranged in a first artificial gingiva (112; 132); defining a first deformable gingiva section (104; 124) of the first artificial gingiva (112; 132) with a first deformable geometrical form, the first deformable gingiva section (104; 124) being located between the teeth (116; 136) of the first plurality of artificial teeth and a first fixed gingiva section (102, 122) of the first artificial gingiva (112; 132) with a first fixed geometrical form; moving the first dental arch (114; 134) as a whole relative to the first fixed gingiva section (102, 122) in order to adjust the position of the first dental arch (114; 134) with the teeth (116; 136) of the first plurality of artificial teeth maintaining fixed positions relative to each other, the first deformable geometrical form of the first deformable gingiva section (104; 124) being deformed due to the moving of the first dental arch (114; 134), whereas the first fixed gingiva section (102, 122) maintains the first fixed geometrical form.
A method for manufacturing a substrate for an analytical sensor, characterized in that it comprises: (a) the step of preparing a dispersed solution of nanoparticles by surface-modifying said nanoparticles with an organic functional group and dispersing such surface-modified nanoparticles in a volatile organic solvent (b) the step of preparing a single layer film of the nanoparticles surface-modified with said organic functional group using said dispersed solution of nanoparticles on the basis of the Langmuir-Blodgett method, and then transferring said single layer film of nanoparticles to a substrate; and (c) the step of coating the substrate to which said single layer film of nanoparticles is transferred, with a metal thin film by means of the vacuum vapor deposition to form a nanofilm. (a) the step of preparing a dispersed solution of nanoparticles by surface-modifying said nanoparticles with an organic functional group and dispersing such surface-modified nanoparticles in a volatile organic solvent (b) the step of preparing a single layer film of the nanoparticles surface-modified with said organic functional group using said dispersed solution of nanoparticles on the basis of the Langmuir-Blodgett method, and then transferring said single layer film of nanoparticles to a substrate; and (c) the step of coating the substrate to which said single layer film of nanoparticles is transferred, with a metal thin film by means of the vacuum vapor deposition to form a nanofilm.
Kitchen appliance having a drive facility, wherein the drive facility features a planetary gear, which comprises: - a sun wheel; - at least one planet wheel, which is disposed on a planet carrier; and - a hollow wheel, which is disposed in a gear housing of the planetary gear; wherein the planet, carrier drives an output shaft, characterised in that the planet carrier is disposed on a roller bearing in the gear housing, with the roller bearing being a ball bearing, characterised in that the ball bearing features an inner ring and an outer ring, with the inner ring being disposed on the gear housing and the outer ring being disposed on the planet carrier. - a sun wheel; - at least one planet wheel, which is disposed on a planet carrier; and - a hollow wheel, which is disposed in a gear housing of the planetary gear;
Casing ring (1; 10) for a timepiece, said timepiece comprising a movement and a case, said casing ring (1; 10) comprising a body (2; 11) intended to at least partially surround the movement and at least one actuating member (3; 131) intended to be actuated from outside the case in order to actuate a control member (7; 17) of the movement, said actuating member (3; 131) being elastic and forming a single-piece assembly with said body (2; 11), characterised in that it comprises at least one other elastic member arranged in series with said actuating member so that the actuation of said actuating member from outside the case actuates said control member via said other elastic member, said other elastic member forming part of the single-piece assembly.
A stereo-endoscope system which includes a medical device and a stereo-endoscope device, wherein the medical device comprises: a treatment part that is inserted into a subject's body and that is used to treat an affected site; a swiveling part that is capable of swiveling the treatment part on a shaft extending in a direction intersecting with the longitudinal axis of the medical device; and a swivel-angle detecting section that detects a swivel angle of the swiveling part, and the stereo-endoscope device comprises: an inserted portion that can be inserted into the subject's body; two imaging devices that are disposed on the inserted portion with a space therebetween; an angle changing mechanism that changes a relative angle of optical axes of the imaging devices; a distance detecting unit (9, 23) for detecting the distance to the imaging devices from the treatment part; and a control section that controls the angle changing mechanism based on insertion information of the stereo-endoscope system, the insertion information including the distance detected by the distance detecting unit and the swivel angle detected by the swivel-angle detecting section. a treatment part that is inserted into a subject's body and that is used to treat an affected site; a swiveling part that is capable of swiveling the treatment part on a shaft extending in a direction intersecting with the longitudinal axis of the medical device; and a swivel-angle detecting section that detects a swivel angle of the swiveling part, and the stereo-endoscope device comprises: an inserted portion that can be inserted into the subject's body; two imaging devices that are disposed on the inserted portion with a space therebetween; an angle changing mechanism that changes a relative angle of optical axes of the imaging devices; a distance detecting unit (9, 23) for detecting the distance to the imaging devices from the treatment part; and a control section that controls the angle changing mechanism based on insertion information of the stereo-endoscope system, the insertion information including the distance detected by the distance detecting unit and the swivel angle detected by the swivel-angle detecting section. an inserted portion that can be inserted into the subject's body; two imaging devices that are disposed on the inserted portion with a space therebetween; an angle changing mechanism that changes a relative angle of optical axes of the imaging devices; a distance detecting unit (9, 23) for detecting the distance to the imaging devices from the treatment part; and a control section that controls the angle changing mechanism based on insertion information of the stereo-endoscope system, the insertion information including the distance detected by the distance detecting unit and the swivel angle detected by the swivel-angle detecting section.
A tube rack transfer device (2, 2') for transferring tube racks, comprising a first rail (23, 23') extending in a first horizontal direction and a second rail (24, 24') extending in a second horizontal direction orthogonal to the first horizontal direction, with the second rail (24, 24') being movable along the first rail (23, 23') and comprising at least one transfer head (29, 29') being movable along the second rail (24, 24'), with the transfer head (29, 29') comprising at least one control pin (34, 36, 53), characterized in that the at least one control pin (34, 36, 53) is adapted to be mechanically coupled, by horizontally moving the at least one transfer head (29, 29'), with at least one of: - an input pusher, translatable in the second direction, for transferring a tube rack from a rack carrier to a sampling area of a diagnostic instrument, - an output pusher for transferring a tube rack from a sampling area of a diagnostic instrument to a rack carrier, - a tube rack for transferring the tube rack between different rack carriers (12, 12', 12") and/or between different positions of the same rack carrier. - an input pusher, translatable in the second direction, for transferring a tube rack from a rack carrier to a sampling area of a diagnostic instrument, - an output pusher for transferring a tube rack from a sampling area of a diagnostic instrument to a rack carrier, - a tube rack for transferring the tube rack between different rack carriers (12, 12', 12") and/or between different positions of the same rack carrier.
A process for carrying out gas-liquid countercurrent processing, comprising passing the liquid material and the gas reactant in countercurrent flow through the fixed bed of catalyst in a reactor, characterized in that the fixed bed of catalyst includes two or more catalyst layers, with the difference of voidages between the adjacent catalyst layers being at least 0.05, wherein the catalyst layers include at least one low-voidage catalyst layer and at least one high-voidage catalyst layer, and wherein the voidages of the low-voidage catalyst layers are 0.25 to 0.55, and the voidages of the high-voidage catalyst layers are 0.35 to 0.90.
A transformant having protocatechuic acid producing ability, wherein the host of the transformant is a coryneform bacterium, wherein the production of chorismate is not inhibited, wherein the transformant is subjected to modifications,, and below: enhancement of 3-dehydroshikimate dehydratase activity by introducing, into the host, a gene that encodes an enzyme having 3-dehydroshikimate dehydratase activity; enhancement of chorismate pyruvate lyase activity by introducing, into the host, a gene that encodes an enzyme having chorismate pyruvate lyase activity; and enhancement of 4-hydroxybenzoate hydroxylase activity by introducing, into the host, a gene that encodes an enzyme having 4-hydroxybenzoate hydroxylase activity, wherein protocatechuic acid-3,4-dioxygenase activity is eliminated, inhibited, or reduced. wherein the host of the transformant is a coryneform bacterium, wherein the production of chorismate is not inhibited, wherein the transformant is subjected to modifications,, and below: enhancement of 3-dehydroshikimate dehydratase activity by introducing, into the host, a gene that encodes an enzyme having 3-dehydroshikimate dehydratase activity; enhancement of chorismate pyruvate lyase activity by introducing, into the host, a gene that encodes an enzyme having chorismate pyruvate lyase activity; and enhancement of 4-hydroxybenzoate hydroxylase activity by introducing, into the host, a gene that encodes an enzyme having 4-hydroxybenzoate hydroxylase activity, enhancement of 3-dehydroshikimate dehydratase activity by introducing, into the host, a gene that encodes an enzyme having 3-dehydroshikimate dehydratase activity; enhancement of chorismate pyruvate lyase activity by introducing, into the host, a gene that encodes an enzyme having chorismate pyruvate lyase activity; and enhancement of 4-hydroxybenzoate hydroxylase activity by introducing, into the host, a gene that encodes an enzyme having 4-hydroxybenzoate hydroxylase activity, wherein protocatechuic acid-3,4-dioxygenase activity is eliminated, inhibited, or reduced.
An ink jet recording method comprising: an ejection step of ejecting, onto a substrate, an ink composition A that includes water, a coloring agent, a photopolymerization initiator, and a microcapsule enclosing at least a polymerizable compound therein, and an ink composition B that includes water, a coloring agent, a photopolymerization initiator, and a microcapsule enclosing at least a polymerizable compound therein; and an irradiation step of irradiating, with light, the ink composition A and the ink composition B ejected on the substrate, wherein an absorbance ABS A of the ink composition A and an absorbance ABS B of the ink composition B satisfy a formula below, a concentration M A of the microcapsule included in the ink composition A and a concentration M B of the microcapsule included in the ink composition B satisfy a formula below, and ABS A, ABS B, M A, and M B satisfy a formula below: ABS A < ABS B M A < M B 1 + 0.1 × ABS B / ABS A × M A < M B < 1 + 0.4 × ABS B / ABS A × M A where ABS A and ABS B respectively represent an average of absorbances of the ink composition A in wavelengths of 360 to 390 nm and an average of absorbances of the ink composition B in wavelengths of 360 to 390 nm, and M A and M B, respectively, represent on a mass basis, a concentration of the microcapsule included in the ink composition A, and a concentration of the microcapsule included in the ink composition B. an ejection step of ejecting, onto a substrate, an ink composition A that includes water, a coloring agent, a photopolymerization initiator, and a microcapsule enclosing at least a polymerizable compound therein, and an ink composition B that includes water, a coloring agent, a photopolymerization initiator, and a microcapsule enclosing at least a polymerizable compound therein; and an irradiation step of irradiating, with light, the ink composition A and the ink composition B ejected on the substrate, wherein an absorbance ABS A of the ink composition A and an absorbance ABS B of the ink composition B satisfy a formula below, a concentration M A of the microcapsule included in the ink composition A and a concentration M B of the microcapsule included in the ink composition B satisfy a formula below, and ABS A, ABS B, M A, and M B satisfy a formula below: ABS A < ABS B M A < M B 1 + 0.1 × ABS B / ABS A × M A < M B < 1 + 0.4 × ABS B / ABS A × M A where ABS A and ABS B respectively represent an average of absorbances of the ink composition A in wavelengths of 360 to 390 nm and an average of absorbances of the ink composition B in wavelengths of 360 to 390 nm, and M A and M B, respectively, represent on a mass basis, a concentration of the microcapsule included in the ink composition A, and a concentration of the microcapsule included in the ink composition B.
A movable grasping member for a device for transferring hollow glass items from a horizontal supporting plate to a discharge conveyor, the grasping member having at least one housing seat for at least one portion of an item to be transferred, and comprising a vertical attachment plate designed to be connected to said transfer device, and means for retaining said glass item in said seat, characterised in that said retaining means comprise at least a first horizontal plate-shaped body extending in an overhanging manner from said vertical plate and stably connected to an upper terminal portion of said vertical plate; said first horizontal plate-shaped body extending, in use, parallel to the horizontal supporting plate and having a recess designed to house, in use, at least partially, the portion of the item to be transferred and delimited by an inner surface for supporting the item; said inner surface having, in plane view, a profile complementary to an outer surface of said portion of the item.
A method comprising: arranging data for transmission in a frame structure, the frame structure comprising a series of subframes, each subframe comprising a plurality of frequency-divided sub-carriers, each sub-carrier comprising a plurality of time-divided symbol positions (422A-422G,...,440A-440G); determining pilot sequences for aiding a receiver in estimating a channel comprising the sub-carriers over which the data is to be transmitted; in each subframe, disposing a pilot sequence for a first transmit antenna in a first of the plurality of symbol positions only in every 2Nth one of the sub-carriers, where N is equal to three or four; and in each subframe, disposing a pilot sequence for a second transmit antenna in the first symbol position only in every 2Nth one of the sub-carriers, wherein the pilot sequences for the first transmit antenna that are in the first symbol position are in different sub-carriers than the pilot sequences for the second transmit antenna that are in the first symbol position, and wherein the subcarriers in which are disposed the pilot sequences for the first transmit antenna that are in the first symbol position are not adjacent to the subcarriers in which are disposed the pilot sequences for the second transmit antenna that are in the first symbol position. arranging data for transmission in a frame structure, the frame structure comprising a series of subframes, each subframe comprising a plurality of frequency-divided sub-carriers, each sub-carrier comprising a plurality of time-divided symbol positions (422A-422G,...,440A-440G); determining pilot sequences for aiding a receiver in estimating a channel comprising the sub-carriers over which the data is to be transmitted; in each subframe, disposing a pilot sequence for a first transmit antenna in a first of the plurality of symbol positions only in every 2Nth one of the sub-carriers, where N is equal to three or four; and in each subframe, disposing a pilot sequence for a second transmit antenna in the first symbol position only in every 2Nth one of the sub-carriers, wherein the pilot sequences for the first transmit antenna that are in the first symbol position are in different sub-carriers than the pilot sequences for the second transmit antenna that are in the first symbol position, and wherein the subcarriers in which are disposed the pilot sequences for the first transmit antenna that are in the first symbol position are not adjacent to the subcarriers in which are disposed the pilot sequences for the second transmit antenna that are in the first symbol position.
A method for transmitting a Physical Uplink Control Channel, PUCCH, signal by a User Equipment, UE, to a base station, BS, in a wireless communication system, the method comprising: receiving a plurality of PUCCH resource configurations via a higher layer signaling, wherein each of the plurality of PUCCH resource configurations comprises information on a number of symbols for the PUCCH signal and information on a symbol index for the PUCCH signal; determining a PUCCH resource configuration among the plurality of PUCCH resource configurations based on the higher layer signaling and downlink control information, DCI; and transmitting the PUCCH signal based on the determined PUCCH resource configuration, wherein a slot index for transmitting the PUCCH signal is determined based on the DCI. receiving a plurality of PUCCH resource configurations via a higher layer signaling, wherein each of the plurality of PUCCH resource configurations comprises information on a number of symbols for the PUCCH signal and information on a symbol index for the PUCCH signal; determining a PUCCH resource configuration among the plurality of PUCCH resource configurations based on the higher layer signaling and downlink control information, DCI; and transmitting the PUCCH signal based on the determined PUCCH resource configuration, wherein a slot index for transmitting the PUCCH signal is determined based on the DCI.
A Chikungunya or Venezuelan equine encephalitis virus like particle comprising a virus structural polypeptide and at least one foreign antigen, wherein said virus structural polypeptide comprises at least one first attachment site and said at least one foreign antigen comprises at least one second attachment site, and wherein said virus structural polypeptide and said antigen are linked through said at least one first and said at least one second attachment sites, and wherein said virus structural polypeptide is a polypeptide of Chikungunya virus or Venezuelan equine encephalitis virus, and wherein said at least one foreign antigen is a protein not derived from Chikungunya virus or Venezuelan equine encephalitis virus.
A composition for use in the treatment of a solid tumor in a patient having the solid tumor, the composition comprising Coenzyme Q10, wherein the composition is administered intravenously.
A method of producing an element of an electronic device, including the steps of: (a) providing a substrate; (b) depositing on said substrate a layer of a switchable material, which changes its physical or chemical properties upon irradiation with light or heating causing a change of its surface energy properties; (c) irradiatively inducing at selected regions of said layer of switchable material a change in physical or chemical properties that alters the surface energy of said selected regions and thereby forming a surface energy pattern on its surface; and (d) without removing said layer of switchable material in either irradiated selected regions or non-irradiated regions from the substrate depositing over the surface energy pattern produced in step (c) an ink for forming an element (3, 7) of the electronic device, and using the surface energy pattern to confine said ink; characterised in that at least said step (c) is carried out in an inert atmosphere.