mhurhangee/patent-ind-claim-en huggingface dataset:
A vinylidene fluoride polymer powder having a median diameter of 50 μm or less as determined by the particle size (D50) at an integrated value of 50 % in a volume-based particle size distribution determined by a wet laser diffraction scattering method, wherein the vinylidene fluoride polymer powder has a maximum melting peak temperature Tm1 of 130°C or higher at a first heating in differential scanning calorimetry, determined according to the method disclosed in the description, and when a shear viscosity is defined as a value measured at a shear rate of 100 s -1 using a parallel plate rheometer while heating is performed from 25°C to 80°C at a temperature increasing rate of 5°C/min, determined according to the method disclosed in the description, a temperature at which a shear viscosity of a dispersion obtained by dispersing the vinylidene fluoride polymer powder in N-methylpyrrolidone at a concentration of 6 wt.% becomes equal to 5 times as great as a shear viscosity thereof at 30°C, is 44°C or higher and lower than 80°C. wherein the vinylidene fluoride polymer powder has a maximum melting peak temperature Tm1 of 130°C or higher at a first heating in differential scanning calorimetry, determined according to the method disclosed in the description, and when a shear viscosity is defined as a value measured at a shear rate of 100 s -1 using a parallel plate rheometer while heating is performed from 25°C to 80°C at a temperature increasing rate of 5°C/min, determined according to the method disclosed in the description, a temperature at which a shear viscosity of a dispersion obtained by dispersing the vinylidene fluoride polymer powder in N-methylpyrrolidone at a concentration of 6 wt.% becomes equal to 5 times as great as a shear viscosity thereof at 30°C, is 44°C or higher and lower than 80°C.
A display device comprising: a substrate comprising a display area (DA) in which a display element (OLED) is arranged; a first type thin-film transistor (T1) arranged in the display area (DA) and comprising a first semiconductor layer (AS1) including silicon semiconductor and a first gate electrode (G1) insulated from the first semiconductor layer (AS1); a first interlayer insulating layer covering the first gate electrode (G1); a second type thin-film transistor (T4) arranged on the first interlayer insulating layer and comprising a second semiconductor layer (AO4) including oxide semiconductor and a second gate electrode (G4b) insulated from the second semiconductor layer (AO4); a second interlayer insulating layer covering the second gate electrode (G4b); a first power supply voltage line arranged on the second interlayer insulating layer ; a first planarization layer covering the first power supply voltage line ; and a data line arranged on the first planarization layer and at least partially overlapping the first power supply voltage line , and a second power supply voltage line arranged on the first planarization layer , electrically connected to the first power supply voltage line and overlaps the second semiconductor layer (AO4) of the second type thin-film transistor (T4) in a plan view. a substrate comprising a display area (DA) in which a display element (OLED) is arranged; a first type thin-film transistor (T1) arranged in the display area (DA) and comprising a first semiconductor layer (AS1) including silicon semiconductor and a first gate electrode (G1) insulated from the first semiconductor layer (AS1); a first interlayer insulating layer covering the first gate electrode (G1); a second type thin-film transistor (T4) arranged on the first interlayer insulating layer and comprising a second semiconductor layer (AO4) including oxide semiconductor and a second gate electrode (G4b) insulated from the second semiconductor layer (AO4); a second interlayer insulating layer covering the second gate electrode (G4b); a first power supply voltage line arranged on the second interlayer insulating layer ; a first planarization layer covering the first power supply voltage line ; and a data line arranged on the first planarization layer and at least partially overlapping the first power supply voltage line , and a second power supply voltage line arranged on the first planarization layer , electrically connected to the first power supply voltage line and overlaps the second semiconductor layer (AO4) of the second type thin-film transistor (T4) in a plan view.
1. A method for manufacturing a hologram pattern comprising: forming a plating layer, including a first part where unevenness is formed on a surface of a plating specimen and a second part having a strength weaker than the first part, for creating a hologram pattern by soaking the plating specimen in plating solution for creating a hologram pattern of a plating tank and applying voltage to the plating tank and creating a pattern where a specimen including a hologram pattern part formed to create unevenness on the surface of the plating layer for creating the hologram pattern by removing the second layer relatively weak in the plating layer through partially or wholly irradiating laser on the surface of the plating layer for creating the hologram pattern is formed, wherein the plating specimen includes a metal plating layer having a hologram pattern thereon. forming a plating layer, including a first part where unevenness is formed on a surface of a plating specimen and a second part having a strength weaker than the first part, for creating a hologram pattern by soaking the plating specimen in plating solution for creating a hologram pattern of a plating tank and applying voltage to the plating tank and creating a pattern where a specimen including a hologram pattern part formed to create unevenness on the surface of the plating layer for creating the hologram pattern by removing the second layer relatively weak in the plating layer through partially or wholly irradiating laser on the surface of the plating layer for creating the hologram pattern is formed, wherein the plating specimen includes a metal plating layer having a hologram pattern thereon.
A humanized anti-IL-17 monoclonal antibody wherein said antibody comprises a light chain (LC) consisting of an amino acid sequence SEQ.ID.NO: 279 and a heavy chain (HC) consisting of an amino acid sequence SEQ.ID.NO: 280.
A substrate processing system that is configured to process a substrate (W) on which a plurality of divided areas are formed along with at least a mark, as a processing target, the system comprising: a measurement device that has a first stage for holding the substrate, and is configured to measure position information of a plurality of the marks on the substrate held on the first stage; and an exposure apparatus that has a second stage (WST) on which the substrate having completed measurement of position information of the plurality of marks by the measurement device is mounted, the exposure apparatus being configured to perform a measurement operation of measuring position information of part of the marks of the plurality of marks on the substrate mounted on the second stage, and an exposure operation of exposing the plurality of divided areas with an energy beam, wherein the measurement device is configured to obtain a first information that includes a nonlinear deformation component of an arrangement of the plurality of divided areas on the substrate, using the position information of the plurality of marks that has been measured, and the exposure apparatus is configured to obtain a second information that includes a linear deformation component of the arrangement of the plurality of divided areas on the substrate using the position information of part of the marks that has been measured, and to control a position of the second stage on the exposure operation based on the first information obtained by the measurement device and the second information. a measurement device that has a first stage for holding the substrate, and is configured to measure position information of a plurality of the marks on the substrate held on the first stage; and an exposure apparatus that has a second stage (WST) on which the substrate having completed measurement of position information of the plurality of marks by the measurement device is mounted, the exposure apparatus being configured to perform a measurement operation of measuring position information of part of the marks of the plurality of marks on the substrate mounted on the second stage, and an exposure operation of exposing the plurality of divided areas with an energy beam, wherein the measurement device is configured to obtain a first information that includes a nonlinear deformation component of an arrangement of the plurality of divided areas on the substrate, using the position information of the plurality of marks that has been measured, and the exposure apparatus is configured to obtain a second information that includes a linear deformation component of the arrangement of the plurality of divided areas on the substrate using the position information of part of the marks that has been measured, and to control a position of the second stage on the exposure operation based on the first information obtained by the measurement device and the second information.
An LNT control method for a vehicle, comprising: a deterioration determining step (S10) that determines whether LNT is deteriorated; and a rich mode necessity determining step (S20) that performs determination so that a rich mode may be performed more times in comparison with the case when LNT is not deteriorated, when determining that the LNT is deteriorated, wherein the rich mode necessity determining step (S20) determines whether a rich mode of LNT is necessary, by multiplying NOx factors set based on values obtained by modeling the amount of NOx adsorbed to LNT by vehicle speed & gear factors set based on the vehicle speed and the number of gears and comparing that with a predetermined rich safe factors,wherein the NOx factors are composed of normal NOx factors determined for a normal state without LNT deteriorated and aged NOx factors specifically determined for the deteriorated state of LNT, and the vehicle speed & gear factors are composed of normal vehicle & gear factors determined for a normal state without LNT deteriorated and aged vehicle speed & gear factors specifically determined for the deteriorated state of LNT, and in the rich mode necessity step (S20), one of the normal NOx factors or the aged NOx factor and one of the normal vehicle speed & gear factors or the aged vehicle speed & gear factors are selected, multiplied, and then compared with the rich safe factors. a deterioration determining step (S10) that determines whether LNT is deteriorated; and a rich mode necessity determining step (S20) that performs determination so that a rich mode may be performed more times in comparison with the case when LNT is not deteriorated, when determining that the LNT is deteriorated, wherein the rich mode necessity determining step (S20) determines whether a rich mode of LNT is necessary, by multiplying NOx factors set based on values obtained by modeling the amount of NOx adsorbed to LNT by vehicle speed & gear factors set based on the vehicle speed and the number of gears and comparing that with a predetermined rich safe factors,wherein the NOx factors are composed of normal NOx factors determined for a normal state without LNT deteriorated and aged NOx factors specifically determined for the deteriorated state of LNT, and the vehicle speed & gear factors are composed of normal vehicle & gear factors determined for a normal state without LNT deteriorated and aged vehicle speed & gear factors specifically determined for the deteriorated state of LNT, and in the rich mode necessity step (S20), one of the normal NOx factors or the aged NOx factor and one of the normal vehicle speed & gear factors or the aged vehicle speed & gear factors are selected, multiplied, and then compared with the rich safe factors.
A method, comprising: Obtaining a connection quality for a user device to one or more wireless access points having at least one device for extending wireless signal coverage coupled thereto; and changing an activation status of the at least one device for extending wireless signal coverage coupled to the one or more wireless access points based on the connection quality for the user device; the method being characterized in that the connection quality for the user device is based on a difference between a connection strength and an energy consumption for each of said at least one device for extending wireless signal coverage. Obtaining a connection quality for a user device to one or more wireless access points having at least one device for extending wireless signal coverage coupled thereto; and changing an activation status of the at least one device for extending wireless signal coverage coupled to the one or more wireless access points based on the connection quality for the user device;
A flexible display cover plate, comprising: a first cover-plate layer and at least one auxiliary protective layer that is disposed on a face of the first cover-plate layer, wherein the auxiliary protective layer comprises a bonding layer and a second cover-plate layer that are superimposed along a direction, wherein the direction is away from the first cover-plate layer , wherein the bonding layer is a deformable film layer, and a face that is of an outermost second cover-plate layer in the at least one auxiliary protective layer and that is away from the bonding layer is used to attach to a display substrate; characterized in that the bonding layer meets at least the following condition: a modulus of the bonding layer is equal to 0.2 MPa. a first cover-plate layer and at least one auxiliary protective layer that is disposed on a face of the first cover-plate layer, wherein the auxiliary protective layer comprises a bonding layer and a second cover-plate layer that are superimposed along a direction, wherein the direction is away from the first cover-plate layer , wherein the bonding layer is a deformable film layer, and a face that is of an outermost second cover-plate layer in the at least one auxiliary protective layer and that is away from the bonding layer is used to attach to a display substrate; characterized in that the bonding layer meets at least the following condition: a modulus of the bonding layer is equal to 0.2 MPa.
An apparatus for pumping blood in the circulatory system of an animal, comprising: a rotor rotatable about a rotational axis and symmetrical about a plane perpendicular to the rotational axis, said rotor having an interior and inner and outer surfaces; a stator located at least in part within the interior of said rotor, said stator supporting said rotor; means for electromagnetically coupling said rotor and said stator; and a housing supporting said stator, said housing including a conductor for providing electrical power to said coupling means, said housing having an inlet and a pair of opposing outlets, the inlet being generally aligned along the rotational axis, each outlet being located generally within the plane and providing radially outward flow from said rotor; wherein said rotor spins about said stator in response to the application of electrical power to said coupling means. a rotor rotatable about a rotational axis and symmetrical about a plane perpendicular to the rotational axis, said rotor having an interior and inner and outer surfaces; a stator located at least in part within the interior of said rotor, said stator supporting said rotor; means for electromagnetically coupling said rotor and said stator; and a housing supporting said stator, said housing including a conductor for providing electrical power to said coupling means, said housing having an inlet and a pair of opposing outlets, the inlet being generally aligned along the rotational axis, each outlet being located generally within the plane and providing radially outward flow from said rotor; wherein said rotor spins about said stator in response to the application of electrical power to said coupling means.
Device for capturing biological particles in suspension in a liquid medium, the device having: - a container that is open via a lower opening; - a filter membrane fixed on the container in such a way as to close the lower opening; and inside the container: - a buffer made of a porous foam and having a planar face resting on the filter membrane; - an absorbent block resting on the buffer and able to absorb said liquid medium when it is in contact with said liquid medium; and - a spring designed to impede the expansion and/or movement of the absorbent block away from the lower opening of the container. - a container that is open via a lower opening; - a filter membrane fixed on the container in such a way as to close the lower opening; and - a buffer made of a porous foam and having a planar face resting on the filter membrane; - an absorbent block resting on the buffer and able to absorb said liquid medium when it is in contact with said liquid medium; and - a spring designed to impede the expansion and/or movement of the absorbent block away from the lower opening of the container.
An orthopaedic fixation device , comprising: an inner core ; and a shaft being formed of a multi-layered, fiber-reinforced composite; characterized by a sensing element formed with, or embedded between, layers of the multi-layered, fiber-reinforced composite. an inner core ; and a shaft being formed of a multi-layered, fiber-reinforced composite; characterized by a sensing element formed with, or embedded between, layers of the multi-layered, fiber-reinforced composite.
A pharmaceutical composition comprising: (i) a substantially lycopene-free extract of fruit of the Solanaceae family comprising: (a) glycosylated phenolic acid or a phenolic ester; (b) a glycosylated flavonoid; and (c) a nucleoside; wherein the extract is a powder and contains <1% sugars and contains >95% of the bioactive components (a), (b) and (c) that are contained in a start mix from which the extract is prepared; and (ii) a pharmaceutically acceptable excipient. (i) a substantially lycopene-free extract of fruit of the Solanaceae family comprising: (a) glycosylated phenolic acid or a phenolic ester; (b) a glycosylated flavonoid; and (c) a nucleoside; wherein the extract is a powder and contains <1% sugars and contains >95% of the bioactive components (a), (b) and (c) that are contained in a start mix from which the extract is prepared; and (a) glycosylated phenolic acid or a phenolic ester; (b) a glycosylated flavonoid; and (c) a nucleoside; (ii) a pharmaceutically acceptable excipient.
A pharmaceutical composition comprising at least two different lytic bacteriophage each selected from a different group, wherein the groups consist of: a) a bacteriophage having a genomic sequence as set forth in SEQ ID NO: 21, 22, 23, 24, 25, 26, 27, 28 or 29, and any other lytic bacteriophage that has at least 83% homology as determined by BLAST to any of the foregoing bacteriophage in a) and is capable of lytic infection of a Klebsiella pneumoniae 2H7 bacterial strain or a bacterial strain having greater than 85 % homology to said Klebsiella pneumoniae 2H7 bacterial strain , b) a bacteriophage having a genomic sequence as set forth in SEQ ID NO: 41, 42, 43, 44, 45, 46, 47, 48, 49, 50, 51 or 52, and any other lytic bacteriophage that has at least 85% homology as determined by BLAST to any of the foregoing bacteriophage in b) and is capable of lytic infection of a Klebsiella pneumoniae 2H7 bacterial strain or a bacterial strain having greater than 85 % homology to said Klebsiella pneumoniae 2H7 bacterial strain, and c) SEQ ID NO: 30, 31, 32, 33, 34, 35, 36, 37, 38, 39 or 40, and any other lytic bacteriophage that has at least 86% homology as determined by BLAST to any of the foregoing bacteriophage in c) and is capable of lytic infection of a Klebsiella pneumoniae 2H7 bacterial strain or a bacterial strain having greater than 85 % homology to said Klebsiella pneumoniae 2H7 bacterial strain , wherein the pharmaceutical composition is formulated for delivery to a mammalian intestine or formulated for delivery to a mammalian mouth. a) a bacteriophage having a genomic sequence as set forth in SEQ ID NO: 21, 22, 23, 24, 25, 26, 27, 28 or 29, and any other lytic bacteriophage that has at least 83% homology as determined by BLAST to any of the foregoing bacteriophage in a) and is capable of lytic infection of a Klebsiella pneumoniae 2H7 bacterial strain or a bacterial strain having greater than 85 % homology to said Klebsiella pneumoniae 2H7 bacterial strain , b) a bacteriophage having a genomic sequence as set forth in SEQ ID NO: 41, 42, 43, 44, 45, 46, 47, 48, 49, 50, 51 or 52, and any other lytic bacteriophage that has at least 85% homology as determined by BLAST to any of the foregoing bacteriophage in b) and is capable of lytic infection of a Klebsiella pneumoniae 2H7 bacterial strain or a bacterial strain having greater than 85 % homology to said Klebsiella pneumoniae 2H7 bacterial strain, and c) SEQ ID NO: 30, 31, 32, 33, 34, 35, 36, 37, 38, 39 or 40, and any other lytic bacteriophage that has at least 86% homology as determined by BLAST to any of the foregoing bacteriophage in c) and is capable of lytic infection of a Klebsiella pneumoniae 2H7 bacterial strain or a bacterial strain having greater than 85 % homology to said Klebsiella pneumoniae 2H7 bacterial strain ,
A circuit for a charged particle detector (144; 244) comprising: a storage cell configured to receive a signal representing an output of a sensing element ; a storage cell switch configured to selectively transmit the signal representing the output of the sensing element to the storage cell; a threshold detector including circuitry configured to determine an integration start signal based on a comparison of the signal representing the output of the sensing element to a threshold, and to determine an integration stop signal based on a comparison of the signal representing the output of the sensing element to a second threshold; and a converter including circuitry configured to perform signal processing on a signal transmitted from the storage cell. a storage cell configured to receive a signal representing an output of a sensing element ; a storage cell switch configured to selectively transmit the signal representing the output of the sensing element to the storage cell; a threshold detector including circuitry configured to determine an integration start signal based on a comparison of the signal representing the output of the sensing element to a threshold, and to determine an integration stop signal based on a comparison of the signal representing the output of the sensing element to a second threshold; and a converter including circuitry configured to perform signal processing on a signal transmitted from the storage cell.