mhurhangee/ep-ind-claims huggingface dataset:
A relay station for relaying communication between a terminal and a radio base station the radio base station allocates to the terminal an uplink channel for notifying a requested band when any signal sequence out of a predetermined signal sequence group is received from the terminal, allocates a transmission band according to the requested band notified from the terminal via the channel, and allocates a predetermined transmission band to the relay station, the relay station comprising: a transmission unit for sending a signal sequence to the radio base station; the transmission unit is arranged to send a specific signal sequence not included in the predetermined signal sequence group, for obtaining a predetermined transmission band from the radio base station, without the relay station being allocated the uplink channel for notifying the requested band by the radio base station. a transmission unit for sending a signal sequence to the radio base station; the transmission unit is arranged to send a specific signal sequence not included in the predetermined signal sequence group, for obtaining a predetermined transmission band from the radio base station, without the relay station being allocated the uplink channel for notifying the requested band by the radio base station.
A method of preparing a sample for TEM analysis, the method comprising: at least partially separating a sample section containing a feature of interest from a bulk substrate; thinning a first side of the sample to expose a first sample face; and thinning a second side of the sample; depositing a layer of a material onto the exposed first sample face, in which the steps of thinning a side of the sample to expose a sample face and depositing a layer of a material onto that exposed sample face are performed simultaneously; characterised in that said simultaneously depositing and thinning are performed by a focused ion beam, said thinning occurring by ion beam milling and said depositing occurring by ion beam-induced dissociation of a precursor gas. at least partially separating a sample section containing a feature of interest from a bulk substrate; thinning a first side of the sample to expose a first sample face; and thinning a second side of the sample; depositing a layer of a material onto the exposed first sample face, in which the steps of thinning a side of the sample to expose a sample face and depositing a layer of a material onto that exposed sample face are performed simultaneously;
A process of extracting or purifying proteinaceous material and fibraceous material from brewer's spent grain, the process comprising the steps of: a) Providing brewer's spent grain; b) Performing enzymatic treatment of the brewer's spent grain, the enzymatic treatment of the brewer's spent grain including addition of xylanase, to form an enzymatically treated brewer's spent grain; c) Fermenting the enzymatically treated brewer's spent grain with lactic acid bacteria and/or acetic acid bacteria and/or probiotics to obtain a fermented broth; d) Hydrolysing proteins in the fermented broth to provide a hydrolysed fermented broth, wherein the pH of the fermentation broth is adjusted to a pH in the range of 2.5 to 3.5 for the step of hydrolysing; and, e) Extracting and/or purifying proteinaceous and fibraceous material from the hydrolysed fermented broth. a) Providing brewer's spent grain; b) Performing enzymatic treatment of the brewer's spent grain, the enzymatic treatment of the brewer's spent grain including addition of xylanase, to form an enzymatically treated brewer's spent grain; c) Fermenting the enzymatically treated brewer's spent grain with lactic acid bacteria and/or acetic acid bacteria and/or probiotics to obtain a fermented broth; d) Hydrolysing proteins in the fermented broth to provide a hydrolysed fermented broth, wherein the pH of the fermentation broth is adjusted to a pH in the range of 2.5 to 3.5 for the step of hydrolysing; and, e) Extracting and/or purifying proteinaceous and fibraceous material from the hydrolysed fermented broth.
An optoelectronic sensor assembly having at least two light emitters (S1, S2, S3) to transmit light into a monitoring area which is traversed by objects in a movement direction (v), at least two light receivers (E1, E2, E3) to receive light from the monitoring area and to generate reception signals, und an evaluation unit to evaluate the reception signals, wherein the light emitters (S1, S2, S3) and the light receivers (E1, E2, E3) are respectively arranged next to each other transversely to the movement direction (v), characterized in that at least one of the light receivers (E1, E2, E3) includes at least two reception segments (E1a, E1b, E1c; E2a, E2b, E2c; E3a, E3b, E3c) to generate respective reception signals, respectively arranged next to each other parallel to the movement direction (v) and onto which light transmitted by the same light emitter (S1, S2, S3) strikes in a time-shifted manner upon movement of the object G in the monitoring area in the movement direction (v), wherein the evaluation unit includes a device to determine the movement direction (v) and/or the movement speed from the reception signals of the reception segments (E1a, E1b, E1c; E2a, E2b, E2c; E3a, E3b, E3c) of at least one light receiver (E1, E2, E3).
A method of pulping wastepaper comprising: (a) providing a pulping vessel with a rotor having a power drive and at least one flow sensor adapted to measure slurry flow within the pulping vessel; (b) charging the pulping vessel with wastepaper and water to form a wastepaper slurry, the amounts of wastepaper and water being present such that the slurry has consistency in the range of from 10% to 30%; (c) pulping the wastepaper slurry in the pulping vessel while monitoring poloidal slurry flow in the pulping vessel; and (d) maintaining poloidal slurry flow in the pulper at or above a lower threshold slurry flow value of 0.1 ft/sec (3.048 cm/sec). and within the range of from 0.1 ft/sec (3.048 cm/sec) to 0.4 ft/sec (12.192 cm/sec) during pulping, wherein the poloidal slurry flow is maintained at or above the lower threshold slurry flow value for at least 60% of pulping duration. (a) providing a pulping vessel with a rotor having a power drive and at least one flow sensor adapted to measure slurry flow within the pulping vessel; (b) charging the pulping vessel with wastepaper and water to form a wastepaper slurry, the amounts of wastepaper and water being present such that the slurry has consistency in the range of from 10% to 30%; (c) pulping the wastepaper slurry in the pulping vessel while monitoring poloidal slurry flow in the pulping vessel; and (d) maintaining poloidal slurry flow in the pulper at or above a lower threshold slurry flow value of 0.1 ft/sec (3.048 cm/sec). and within the range of from 0.1 ft/sec (3.048 cm/sec) to 0.4 ft/sec (12.192 cm/sec) during pulping, wherein the poloidal slurry flow is maintained at or above the lower threshold slurry flow value for at least 60% of pulping duration.
A method of making a textile comprising: providing a textile having a first surface, the first surface comprising a first thermoplastic material; softening or melting the first thermoplastic material by increasing a temperature of at least a portion of the first surface of the textile to a first temperature at or above one of a creep relaxation temperature, a heat deflection temperature, a Vicat softening temperature, or a melting temperature of the first thermoplastic material; altering a texture of the at least a portion of the first surface while the temperature of the first surface is at or above the first temperature by contacting a textured molding surface of a release paper transfer medium with the first surface of the textile while increasing the temperature of the first surface of the textile to the first temperature and using the textured molding surface to alter the texture of the first surface to a texture which simulates the texture of natural leather; and disposing an optical element onto the first thermoplastic material of the at least a portion of the first surface having the altered texture, wherein the optical element, as disposed on the first surface, imparts a structural color to the textile. providing a textile having a first surface, the first surface comprising a first thermoplastic material; softening or melting the first thermoplastic material by increasing a temperature of at least a portion of the first surface of the textile to a first temperature at or above one of a creep relaxation temperature, a heat deflection temperature, a Vicat softening temperature, or a melting temperature of the first thermoplastic material; altering a texture of the at least a portion of the first surface while the temperature of the first surface is at or above the first temperature by contacting a textured molding surface of a release paper transfer medium with the first surface of the textile while increasing the temperature of the first surface of the textile to the first temperature and using the textured molding surface to alter the texture of the first surface to a texture which simulates the texture of natural leather; and disposing an optical element onto the first thermoplastic material of the at least a portion of the first surface having the altered texture, wherein the optical element, as disposed on the first surface, imparts a structural color to the textile.
An antifouling coating composition comprising polymer A and antifouling agent; wherein the polymer A is a copolymer of monomer (a) and ethylenically unsaturated monomer (b) other than the monomer (a); and the monomer (a) is represented by general formula: wherein, R 1 represents hydrogen atom or methyl group; R 2 represents hydrogen, methyl group, or phenyl group; R 3 represents methyl group, ethyl group, n-propyl group, isopropyl group, n-butyl group, t-butyl group, 2-ethylhexyl group, cyclohexyl group, benzyl group, phenyl group, 2-methoxyethyl group, 4-methoxybutyl group, vinyl group, or allyl group; and n represents an integer of 2 to 10, and the antifouling agent comprises 2-(p-chlorophenyl)-3-cyano-4-bromo-5-trifluoromethyl pyrrole or 4-[1-(2,3-dimethylphenyl)ethyl]-1H-imidazole. the polymer A is a copolymer of monomer (a) and ethylenically unsaturated monomer (b) other than the monomer (a); and the monomer (a) is represented by general formula: wherein, R 1 represents hydrogen atom or methyl group; R 2 represents hydrogen, methyl group, or phenyl group; R 3 represents methyl group, ethyl group, n-propyl group, isopropyl group, n-butyl group, t-butyl group, 2-ethylhexyl group, cyclohexyl group, benzyl group, phenyl group, 2-methoxyethyl group, 4-methoxybutyl group, vinyl group, or allyl group; and n represents an integer of 2 to 10, and the antifouling agent comprises 2-(p-chlorophenyl)-3-cyano-4-bromo-5-trifluoromethyl pyrrole or 4-[1-(2,3-dimethylphenyl)ethyl]-1H-imidazole.
An arrayed waveguide grating circuit, comprising: a first slab waveguide connected to a first input waveguide and second output waveguides at one face of the first slab waveguide; a second slab waveguide connected to first output waveguides and a second input waveguide at one face of the second slab waveguide; and an array waveguide that connects an other face of the first slab waveguide opposed to the one face of the first slab waveguide to an other face of the second slab waveguide opposed to the one face of the second slab waveguide, wherein the first input waveguide is connected to the first slab waveguide and is positioned outside of the second output waveguides with a second interval to an outermost second output waveguide among the second output waveguides connected to the one face of the first slab waveguide with a first interval, and wherein the second input waveguide is connected to the second slab waveguide and is positioned outside of the first output waveguides with the second interval to an outermost first output waveguide among the first output waveguides connected to the one face of the second slab waveguide with the first interval wherein the first interval is different from the second interval. a first slab waveguide connected to a first input waveguide and second output waveguides at one face of the first slab waveguide; a second slab waveguide connected to first output waveguides and a second input waveguide at one face of the second slab waveguide; and an array waveguide that connects an other face of the first slab waveguide opposed to the one face of the first slab waveguide to an other face of the second slab waveguide opposed to the one face of the second slab waveguide, wherein the first input waveguide is connected to the first slab waveguide and is positioned outside of the second output waveguides with a second interval to an outermost second output waveguide among the second output waveguides connected to the one face of the first slab waveguide with a first interval, and wherein the second input waveguide is connected to the second slab waveguide and is positioned outside of the first output waveguides with the second interval to an outermost first output waveguide among the first output waveguides connected to the one face of the second slab waveguide with the first interval wherein the first interval is different from the second interval.
Warp knitting machine with a knitting area in which the warp knitting machine produces a warp knit during a knitting process, with a yarn feed area in which warp yarns run during operation of the warp knitting machine before they are subjected to the knitting process in the knitting area, and with a system for monitoring a fabric quality of the produced warp knit, wherein the system for monitoring the fabric quality of the produced warp knit has an optical scanning device and a data processing unit, and wherein the data processing unit is configured to produce an evaluation signal relating to the fabric quality of the warp knit, characterised in that the optical scanning device is arranged in such a way that it can capture a moving image of at least one warp yarn in the yarn feed area, the data processing unit being configured to determine a yarn running speed of the at least one warp yarn from the moving image, to evaluate the yarn running speed in an evaluation step and to produce the evaluation signal as a function of an evaluation result of the evaluation step.
An isolated antibody which binds to human tissue factor wherein the antibody comprises a heavy chain variable region of SEQ ID NO:139 and a light chain variable region of SEQ ID NO:23.
A method of network configuration selection in a wireless network comprising a plurality of nodes, the method comprising the steps of: configuring a subset of nodes of the plurality of nodes to simultaneously participate in a sounding process, in which a node of the subset omni-directionally transmits a predetermined signal and in which other nodes of the subset of nodes sample the predetermined signal as received by an omni-directional antenna array of that node; receiving measurement reports from the subset of nodes, wherein each measurement report comprises a signal source angle and a received signal strength; determining a path loss in dependence on each measurement report to generate a set of path losses covering a plurality of transmitter node receiver node pairs; and selecting a directional configuration for a directional antenna of each node of the subset of nodes to use in data transmission in dependence on the set of path losses. configuring a subset of nodes of the plurality of nodes to simultaneously participate in a sounding process, in which a node of the subset omni-directionally transmits a predetermined signal and in which other nodes of the subset of nodes sample the predetermined signal as received by an omni-directional antenna array of that node; receiving measurement reports from the subset of nodes, wherein each measurement report comprises a signal source angle and a received signal strength; determining a path loss in dependence on each measurement report to generate a set of path losses covering a plurality of transmitter node receiver node pairs; and selecting a directional configuration for a directional antenna of each node of the subset of nodes to use in data transmission in dependence on the set of path losses.
Abase station that performs coordinated Multi-Point (CoMP) communication with a user terminal, comprising: a transmitter (201, 210) configured to transmit, to a neighboring base station, transmission power information that indicates restriction of downlink transmission power of the base station in the CoMP communication, wherein the transmission power information comprises: a threshold value; a bit string that indicates, for each resource block, whether the downlink transmission power exceeds the threshold value; and a start subframe number at which the restriction indicated by the bit string becomes valid, wherein the transmission power information is configured to cause the neighbor base station to perform scheduling upon receiving the transmission power information, characterized in that the transmission power information further comprises subframe period information indicating a period of subframes over which the frequency domain restriction is active, including the start subframe number. a transmitter (201, 210) configured to transmit, to a neighboring base station, transmission power information that indicates restriction of downlink transmission power of the base station in the CoMP communication, wherein the transmission power information comprises: a threshold value; a bit string that indicates, for each resource block, whether the downlink transmission power exceeds the threshold value; and a start subframe number at which the restriction indicated by the bit string becomes valid, wherein the transmission power information is configured to cause the neighbor base station to perform scheduling upon receiving the transmission power information, characterized in that the transmission power information further comprises subframe period information indicating a period of subframes over which the frequency domain restriction is active, including the start subframe number. a threshold value; a bit string that indicates, for each resource block, whether the downlink transmission power exceeds the threshold value; and a start subframe number at which the restriction indicated by the bit string becomes valid, wherein the transmission power information is configured to cause the neighbor base station to perform scheduling upon receiving the transmission power information, characterized in that the transmission power information further comprises subframe period information indicating a period of subframes over which the frequency domain restriction is active, including the start subframe number.
An ultrasonic coupling device (100, 200) comprising a hydrogel (120, 220) wherein the hydrogel has a water content of at least 10 wt%; and a near field communication device (110, 210), wherein the hydrogel (120, 220) is derived from an aqueous composition, the aqueous composition comprising at least one of a type I or type II photoinitiator, wherein the at least one type I and the at least one type II photoinitiators are both water-soluble, which means that at ambient conditions of 23°C, the photoinitiator has a solubility of at least 0.01 % by weight in water. a hydrogel (120, 220) wherein the hydrogel has a water content of at least 10 wt%; and a near field communication device (110, 210), wherein the hydrogel (120, 220) is derived from an aqueous composition, the aqueous composition comprising at least one of a type I or type II photoinitiator, wherein the at least one type I and the at least one type II photoinitiators are both water-soluble, which means that at ambient conditions of 23°C, the photoinitiator has a solubility of at least 0.01 % by weight in water.
A petroleum refinery pipe for use in processes for cracking petroleum feedstocks comprising: a pipe body substrate selected from among carbon steels, alloy steels, and stainless steels; and a Co-based metallic coating on an internal surface of the pipe body wherein the coating has a thickness between 0.25 and 2.5 mm thick; wherein the coating has a composition consisting of between 25 and 35 wt% Cr, between 11 and 20 wt% Mo and/or W, between 2 and 3.4 wt% C, up to 1.5 wt % Si, up to 1 wt% B, and a balance of between 40 and 55 wt% Co; wherein the coating has a hypereutectic microstructure characterized by carbides in a cobalt matrix and an average carbide grain size of less than 50 μm; wherein the Co-based metallic composition overlays the pipe internal surface at an interface which is free of heat-affected zone and which has a diffusion zone which is less than 0.05 mm (0.002 inches) thick. a pipe body substrate selected from among carbon steels, alloy steels, and stainless steels; and a Co-based metallic coating on an internal surface of the pipe body wherein the coating has a thickness between 0.25 and 2.5 mm thick; wherein the coating has a composition consisting of between 25 and 35 wt% Cr, between 11 and 20 wt% Mo and/or W, between 2 and 3.4 wt% C, up to 1.5 wt % Si, up to 1 wt% B, and a balance of between 40 and 55 wt% Co; wherein the coating has a hypereutectic microstructure characterized by carbides in a cobalt matrix and an average carbide grain size of less than 50 μm; wherein the Co-based metallic composition overlays the pipe internal surface at an interface which is free of heat-affected zone and which has a diffusion zone which is less than 0.05 mm (0.002 inches) thick.
A flooring product comprising an outer backing provided from a hot-melt composition comprising thermoplastic polyurethane and polyvinylchloride, wherein the weight ratio of TPU over PVC is in the range of 50/50 to 95/5, and wherein the flooring product is selected from the group consisting of vinyl-based flooring products, carpets and rugs.