mhurhangee/patent-ind-claim-en huggingface dataset:
A gelatin or a chemically modified product thereof, comprising 10 to 35% by mass of a high-molecular weight component, and a low-molecular weight component in such an amount that a value obtained by subtracting the low-molecular weight component content from the high-molecular weight component content is greater than or equal to 2% by mass; wherein a "high-molecular weight component" has a structure in which greater than or equal to 4 α-chains bond each other, and has a higher molecular weight than that of a γ-chain, a "low-molecular weight component" is a short peptide generated by hydrolyzing an α-chain and has a lower molecular weight than that of an α-chain, and the contents of the high-molecular weight component, the γ-chain, the β-chain, the α-chain, and the low-molecular weight component in the gelatin are analyzed by polyacrylamide electrophoresis (SDS-PAGE) and its densitogram according to the description; and wherein a chemically modified product of gelatin is a product in which a carboxyl group or an amino group or proline in the gelatin is chemically modified, wherein chemical modification of the carboxyl group includes amidation with ammonia, amine, or glycine methyl ester, chemical modification of the amino group includes succinylation, phthalation, fumarylation, and acetylation, or the proline in the gelatin is hydroxylated.
A method for obtaining olive oil and at least one polyphenol concentrated extract and a functional olive flour ingredient characterised in that it comprises the stages of: - Separating the stone and skin from the olive pulp, carried out by means of a refining machine equipped with a drive shaft rotary sieve having a variable pore diameter of 2-6 mm to allow the olive paste to pass, obtaining the whole stone on the one hand and, on the other, an olive paste; - Electric pulsing of the olive paste with an electric field voltage of 1-3 kV/cm, frequency of 114-255 Hz and 2-10 pulses of 50-90 microseconds; - Dehydrating the pulsed olive paste up to a humidity of < 30% in a continuous vacuum drying machine under the following conditions: vacuum < 80 mbar of absolute pressure, temperature < 41°C and 20-100 kg of evaporated water/h; - Separating the oil from the olive paste by centrifugation in a decanter with the necessary adjustments to treat de-stoned dehydrated pulp and obtainment of virgin olive oil ; - Dehydrating the degreased pulp, after separating the oil, up to a humidity of less than 10% applying vacuum conditions < 200 mbar of absolute pressure, temperature < 60°C and 20-100 kg of evaporated water/h; - Applying supercritical fluids CO 2 with or without modifier to the degreased and dehydrated olive paste, under agitation, pressure 150-250 Bar, temperature 40°C and time 60-240 min conditions; and - Obtaining, on the one hand, a series of extracts squalene, oleuropein, hydroxytyrosol, verbascoside, tyrosol, tocopherol, oleocanthal and, on the other hand, olive flour with a high fibre, protein and polyphenol antioxidant content. - Separating the stone and skin from the olive pulp, carried out by means of a refining machine equipped with a drive shaft rotary sieve having a variable pore diameter of 2-6 mm to allow the olive paste to pass, obtaining the whole stone on the one hand and, on the other, an olive paste; - Electric pulsing of the olive paste with an electric field voltage of 1-3 kV/cm, frequency of 114-255 Hz and 2-10 pulses of 50-90 microseconds; - Dehydrating the pulsed olive paste up to a humidity of < 30% in a continuous vacuum drying machine under the following conditions: vacuum < 80 mbar of absolute pressure, temperature < 41°C and 20-100 kg of evaporated water/h; - Separating the oil from the olive paste by centrifugation in a decanter with the necessary adjustments to treat de-stoned dehydrated pulp and obtainment of virgin olive oil ; - Dehydrating the degreased pulp, after separating the oil, up to a humidity of less than 10% applying vacuum conditions < 200 mbar of absolute pressure, temperature < 60°C and 20-100 kg of evaporated water/h; - Applying supercritical fluids CO 2 with or without modifier to the degreased and dehydrated olive paste, under agitation, pressure 150-250 Bar, temperature 40°C and time 60-240 min conditions; and - Obtaining, on the one hand, a series of extracts squalene, oleuropein, hydroxytyrosol, verbascoside, tyrosol, tocopherol, oleocanthal and, on the other hand, olive flour with a high fibre, protein and polyphenol antioxidant content.
A display device , comprising: a substrate (SUB); and a plurality of pixels (P) disposed on the substrate (SUB), wherein at least one of the plurality of pixels (P) comprises: a thin film transistor ; a bonding pad electrically connected to the thin film transistor ; a light emitting unit disposed on the bonding pad ; and a metal layer insulated from the bonding pad and forming at least a non-closed ring (R, R1, R2) and closed ring around the bonding pad in a top view direction of the display device ; the display device being characterized in that a distance between the metal layer and the bonding pad ranges from 1 μm to 30 μm; the metal layer comprises a plurality of separated metal members adjacent to the bonding pad ; and that the plurality of separated metal members have a same shape or different shapes. a substrate (SUB); and a plurality of pixels (P) disposed on the substrate (SUB), wherein at least one of the plurality of pixels (P) comprises: a thin film transistor ; a bonding pad electrically connected to the thin film transistor ; a light emitting unit disposed on the bonding pad ; and a metal layer insulated from the bonding pad and forming at least a non-closed ring (R, R1, R2) and closed ring around the bonding pad in a top view direction of the display device ; the display device being characterized in that a distance between the metal layer and the bonding pad ranges from 1 μm to 30 μm; the metal layer comprises a plurality of separated metal members adjacent to the bonding pad ; and that the plurality of separated metal members have a same shape or different shapes. a thin film transistor ; a bonding pad electrically connected to the thin film transistor ; a light emitting unit disposed on the bonding pad ; and a metal layer insulated from the bonding pad and forming at least a non-closed ring (R, R1, R2) and closed ring around the bonding pad in a top view direction of the display device ; the display device being characterized in that a distance between the metal layer and the bonding pad ranges from 1 μm to 30 μm; the metal layer comprises a plurality of separated metal members adjacent to the bonding pad ; and that the plurality of separated metal members have a same shape or different shapes.
A retention device adapted to retain detonators inside a booster , said booster comprising: - an explosive charge , - a through hole comprising a first end and a second end, and - a blind hole comprising one end, wherein the retention device comprises, - at least one substantially flat portion , - at least one outer face and at least one inner face , - at least one flexible holding means located substantially in said at least one substantially flat portion , and can be accessed or handled by an operator from the at least one outer face , - at least one first opening located in said at least one substantially flat portion and - at least one second opening located in said at least one substantially flat portion , wherein - the at least one first opening is adapted to allow the detonator to access the through hole , and - the at least one second opening is adapted to allow the detonator to access the blind hole , characterized in that the at least one flexible holding means is arranged substantially next to each at least one second opening , and said flexible holding means are adapted to be movable from the outside of the booster, for example with a finger or tool, between a blocking position retaining a detonator inside the blind hole and an open position which allows extracting the detonator from said blind hole . - an explosive charge , - a through hole comprising a first end and a second end, and - a blind hole comprising one end, - at least one substantially flat portion , - at least one outer face and at least one inner face , - at least one flexible holding means located substantially in said at least one substantially flat portion , and can be accessed or handled by an operator from the at least one outer face , - at least one first opening located in said at least one substantially flat portion and - at least one second opening located in said at least one substantially flat portion , - the at least one first opening is adapted to allow the detonator to access the through hole , and - the at least one second opening is adapted to allow the detonator to access the blind hole , the at least one flexible holding means is arranged substantially next to each at least one second opening , and said flexible holding means are adapted to be movable from the outside of the booster, for example with a finger or tool, between a blocking position retaining a detonator inside the blind hole and an open position which allows extracting the detonator from said blind hole .
A terminal device comprising: a communication interface unit configured to communicate with another terminal device storing an installation file of an application which is installed in the other terminal device ; a display unit ; and a control unit configured to, control the communication interface unit to transmit a streaming request to the other terminal device , receive stream data corresponding to a first image generated based on execution of the application and the installation file from the other terminal device , control the display unit to display the first image, and execute the received installation file to install the application when authentication for installing the application is completed, wherein the control unit is further configured to, transmit a command for manipulating the executed application to the other terminal device and receive stream data corresponding to a second image generated by applying the command to the executed application from the other terminal device while the first image is displayed on a display of the other terminal device . a communication interface unit configured to communicate with another terminal device storing an installation file of an application which is installed in the other terminal device ; a display unit ; and a control unit configured to, control the communication interface unit to transmit a streaming request to the other terminal device , receive stream data corresponding to a first image generated based on execution of the application and the installation file from the other terminal device , control the display unit to display the first image, and execute the received installation file to install the application when authentication for installing the application is completed, wherein the control unit is further configured to, transmit a command for manipulating the executed application to the other terminal device and receive stream data corresponding to a second image generated by applying the command to the executed application from the other terminal device while the first image is displayed on a display of the other terminal device .
An integrated circuit comprising a lateral flux capacitor assembly having: a first metal layer (M1) having at least a first and second set of parallel capacitive fingers and first and second dummy metal line portions and first and second hand portions ; a second metal layer (M2) having at least a first and second set of parallel capacitive fingers (425-428) and first and second dummy metal line portions and first and second hand portions ; wherein the first and second sets of parallel capacitive fingers in the first metal layer (M1) are positioned in mirror image relationship with the first and second sets of parallel capacitive fingers (425-428) in the second metal layer (M2), the sets of capacitive fingers positioned in mirror image relationship having opposite polarities; wherein the first and second dummy metal line portions in the first metal layer (M1) are positioned in mirror image relationship with the first and second dummy metal line portions in the second metal layer (M2); wherein first and second hand portions in each metal layer electrically connecting capacitive fingers attached thereto to an associated dummy metal line portion, the first hand portion in the first metal layer (M1) partially overlapping with the second hand portion in the second metal layer (M2) and the second hand portion in the first metal layer (M1) partially overlapping with the first hand portion in the second metal layer (M2). a first metal layer (M1) having at least a first and second set of parallel capacitive fingers and first and second dummy metal line portions and first and second hand portions ; a second metal layer (M2) having at least a first and second set of parallel capacitive fingers (425-428) and first and second dummy metal line portions and first and second hand portions ; wherein the first and second sets of parallel capacitive fingers in the first metal layer (M1) are positioned in mirror image relationship with the first and second sets of parallel capacitive fingers (425-428) in the second metal layer (M2), the sets of capacitive fingers positioned in mirror image relationship having opposite polarities; wherein the first and second dummy metal line portions in the first metal layer (M1) are positioned in mirror image relationship with the first and second dummy metal line portions in the second metal layer (M2); wherein first and second hand portions in each metal layer electrically connecting capacitive fingers attached thereto to an associated dummy metal line portion, the first hand portion in the first metal layer (M1) partially overlapping with the second hand portion in the second metal layer (M2) and the second hand portion in the first metal layer (M1) partially overlapping with the first hand portion in the second metal layer (M2).
An electric field vector detection method for detecting an electric field vector of a terahertz wave (T), wherein ultrashort pulsed light is used as probe light (La) and an electro-optic crystal, where a surface of an optical isotropic medium is cut out, is used as a terahertz wave detection element for detecting the terahertz wave (T), the method comprising: causing polarization of the probe light (La) to be circular polarization; allowing the probe light (La) having circular polarization to enter the terahertz wave detection element and probing the terahertz wave (T); the method characterized by further comprising: modulating the probe light (La), having probed the terahertz wave (T), by a rotating analyzer and detecting the modulated probe light (La) by a photodetector ; performing lock-in detection of a detection signal from the photodetector by a lock-in detector using a frequency based on a rotational frequency of the rotating analyzer as a reference signal; and detecting an electric field vector (E T ) of the terahertz wave (T) based on a detection signal from the lock-in detector . causing polarization of the probe light (La) to be circular polarization; allowing the probe light (La) having circular polarization to enter the terahertz wave detection element and probing the terahertz wave (T); the method characterized by further comprising: modulating the probe light (La), having probed the terahertz wave (T), by a rotating analyzer and detecting the modulated probe light (La) by a photodetector ; performing lock-in detection of a detection signal from the photodetector by a lock-in detector using a frequency based on a rotational frequency of the rotating analyzer as a reference signal; and detecting an electric field vector (E T ) of the terahertz wave (T) based on a detection signal from the lock-in detector . modulating the probe light (La), having probed the terahertz wave (T), by a rotating analyzer and detecting the modulated probe light (La) by a photodetector ; performing lock-in detection of a detection signal from the photodetector by a lock-in detector using a frequency based on a rotational frequency of the rotating analyzer as a reference signal; and detecting an electric field vector (E T ) of the terahertz wave (T) based on a detection signal from the lock-in detector .
Sorting facility connecting a plurality of conveyance carriages conveying objects to be conveyed along a conveyance path (K), and sorting the objects to be conveyed by loading the objects to be conveyed to the conveyance carriages or delivering the objects to be conveyed from the conveyance carriages , in a sorting position formed in a predetermined position of the conveyance path (K), comprising: a position management section managing a position of each of the conveyance carriages on the conveyance path (K); a first carriage detection section provided at a conveyance upstream side of the conveyance path (K) from the sorting position , in a position different from a position where the position management section is provided; a sorting section provided on each of the conveyance carriages and sorting each of the objects to be conveyed that is conveyed by each of the conveyance carriages ; and a control section controlling the position management section, the first carriage detection section , and the sorting section , wherein the control section identifies each of the conveyance carriages that should sort each of the objects to be conveyed in the sorting position , based on a position of each of the conveyance carriages managed by the position management section, and instructs the sorting section provided on each of the conveyance carriages identified to sort each of the objects to be conveyed, and instructs the sorting section provided on each of the conveyance carriages identified to start a sorting operation of each of the objects to be conveyed at timing when the first carriage detection section detects each of the conveyance carriages identified. a position management section managing a position of each of the conveyance carriages on the conveyance path (K); a first carriage detection section provided at a conveyance upstream side of the conveyance path (K) from the sorting position , in a position different from a position where the position management section is provided; a sorting section provided on each of the conveyance carriages and sorting each of the objects to be conveyed that is conveyed by each of the conveyance carriages ; and a control section controlling the position management section, the first carriage detection section , and the sorting section , wherein the control section identifies each of the conveyance carriages that should sort each of the objects to be conveyed in the sorting position , based on a position of each of the conveyance carriages managed by the position management section, and instructs the sorting section provided on each of the conveyance carriages identified to sort each of the objects to be conveyed, and instructs the sorting section provided on each of the conveyance carriages identified to start a sorting operation of each of the objects to be conveyed at timing when the first carriage detection section detects each of the conveyance carriages identified.
An interface circuit for selecting and processing signals corresponding to either an RS-485 or 802.3bw Ethernet protocol on one or more ports, the interface circuit comprising: a processor , a switch coupled to said processor , said switch including circuitry for determining if signals received thereby comply with RS-485 protocol or 802.3bw Ethernet protocol, at least one physical layer circuit (55a, 55b, 55c, 60a, 60b, PHY) coupled between said switch and each of said one or more ports configured to process signals provided in either RS-485 or 802.3bw protocol as determined by said switch , wherein said signals after processing are output on each of said one or more ports on a shared two wire bus, characterized in that said switch includes a timing circuitry for determining if signals received thereby comply with RS-485 protocol or 802.3bw Ethernet protocol by measuring the pulse width of the signals and detecting whether the pulse width is in a range defined by the 802.3bw protocol. a processor , a switch coupled to said processor , said switch including circuitry for determining if signals received thereby comply with RS-485 protocol or 802.3bw Ethernet protocol, at least one physical layer circuit (55a, 55b, 55c, 60a, 60b, PHY) coupled between said switch and each of said one or more ports configured to process signals provided in either RS-485 or 802.3bw protocol as determined by said switch , wherein said signals after processing are output on each of said one or more ports on a shared two wire bus, characterized in that said switch includes a timing circuitry for determining if signals received thereby comply with RS-485 protocol or 802.3bw Ethernet protocol by measuring the pulse width of the signals and detecting whether the pulse width is in a range defined by the 802.3bw protocol.
A method of improving plant growth in a plant of interest by upregulating the expression of at least one nucleotide sequence encoding a transcription factor polypeptide wherein said upregulating is achieved by genetic modification of said plant of interest by the stable insertion of at least one expression construct comprising a non-constitutive promoter that drives expression in a plant cell, operably linked to at least one nucleotide sequence encoding at least one transcription factor polypeptide, wherein said transcription factor polypeptide comprises an amino acid sequence that shares at least 95% identity with a sequence selected from the sequences set forth in SEQ ID NOs: 2, 23, and 39, and wherein said upregulating comprises upregulating expression in said plant of interest as compared to a control plant.
A system of calibration matrices for extruding a plastic profile, said system comprising several consecutive calibration matrices , each calibration matrix comprises a bottom half of the calibration matrix and an upper half of the calibration matrix , wherein both upper as well as bottom halves comprise cooling channels , wherein an inner chamber running in the longitudinal direction of the calibration matrix is formed between the upper half and bottom half of the calibration matrix in the assembled position of the upper half and bottom half , the cross section of which conforms to the extruded profile and the surface of which is coated with anti-adhesive antifriction material wherein there is an observation gap between at least some consecutive calibration matrices, characterized in that the anti-adhesive antifriction material is a glass fibre fabric or tape with a self-adhesive layer coated with polytetrafluoroethylene (PTFE) adhered to the surface of the inner chamber . each calibration matrix comprises a bottom half of the calibration matrix and an upper half of the calibration matrix , wherein both upper as well as bottom halves comprise cooling channels , wherein an inner chamber running in the longitudinal direction of the calibration matrix is formed between the upper half and bottom half of the calibration matrix in the assembled position of the upper half and bottom half , the cross section of which conforms to the extruded profile and the surface of which is coated with anti-adhesive antifriction material wherein there is an observation gap between at least some consecutive calibration matrices, characterized in that the anti-adhesive antifriction material is a glass fibre fabric or tape with a self-adhesive layer coated with polytetrafluoroethylene (PTFE) adhered to the surface of the inner chamber .