mhurhangee/ep-ind-claims huggingface dataset:
A system for manufacturing fibers from coal comprising: at least one reaction chamber capable of pyrolyzing a combination of coal in a carbon dioxide atmosphere; a heat source configured to provide thermal energy to the reaction chamber; a separation system configured to receive the carbon dioxide atmosphere from a first outlet of the reaction chamber after pyrolysis of the coal and condense pitch from the carbon dioxide into a pitch container; a thermal energy transfer system configured to transfer thermal energy from the heat source to the reaction chamber, the thermal energy transfer system comprising a heat transfer element including a heat transfer loop filled with a supercritical fluid and in thermal communication with the heat source; a flow control system positioned along the heat transfer element and configured to control the flow of supercritical fluid through the heat transfer element; a feedstock supply system operable coupled to the reaction chamber and configured to provide the coal and water to an interior of the reaction chamber; a residual storage system configured receive feedstock residue from a second outlet of the reaction chamber; a product collection system configured to collect the other compounds from the separation system; a return path configured to circulate the carbon dioxide from the separation system back to the heat source; and an extruder connected to the separation system configured to receive and extrude the pitch condensed by the separation system. at least one reaction chamber capable of pyrolyzing a combination of coal in a carbon dioxide atmosphere; a heat source configured to provide thermal energy to the reaction chamber; a separation system configured to receive the carbon dioxide atmosphere from a first outlet of the reaction chamber after pyrolysis of the coal and condense pitch from the carbon dioxide into a pitch container; a thermal energy transfer system configured to transfer thermal energy from the heat source to the reaction chamber, the thermal energy transfer system comprising a heat transfer element including a heat transfer loop filled with a supercritical fluid and in thermal communication with the heat source; a flow control system positioned along the heat transfer element and configured to control the flow of supercritical fluid through the heat transfer element; a feedstock supply system operable coupled to the reaction chamber and configured to provide the coal and water to an interior of the reaction chamber; a residual storage system configured receive feedstock residue from a second outlet of the reaction chamber; a product collection system configured to collect the other compounds from the separation system; a return path configured to circulate the carbon dioxide from the separation system back to the heat source; and an extruder connected to the separation system configured to receive and extrude the pitch condensed by the separation system.
An automatic cleaning system, intended to be positioned inside a booth with a controlled atmosphere belonging to a coating facility the system comprising: - at least one nozzle for applying a liquid solvent on all or part of the spraying robot (8a, 8b), comprising a moving arm at the end of which a handle and a sprayer attached on the handle are provided, each nozzle belonging to a rinsing station, dimensioned to receive the sprayer completely, the rinsing station preferably being shared by several spraying robots (8a, 8b), and - a drying station, dimensioned to receive all or part of a spraying robot (8a, 8b), the entire surface of the sprayer could be exposed, at least temporarily, to a liquid solvent jet applied by the nozzle (64; 86.4) or by one of the nozzles, characterized in that the drying station and the rinsing station are separate. - at least one nozzle for applying a liquid solvent on all or part of the spraying robot (8a, 8b), comprising a moving arm at the end of which a handle and a sprayer attached on the handle are provided, each nozzle belonging to a rinsing station, dimensioned to receive the sprayer completely, the rinsing station preferably being shared by several spraying robots (8a, 8b), and - a drying station, dimensioned to receive all or part of a spraying robot (8a, 8b), the entire surface of the sprayer could be exposed, at least temporarily, to a liquid solvent jet applied by the nozzle (64; 86.4) or by one of the nozzles,
A bubble-up auger assembly for an agricultural vehicle, said bubble-up auger assembly comprising: an input shaft that is rotatable about an axis of rotation; a rotatable shaft having flightings and a first connection end that is configured to be releasably engaged with said input shaft for rotating the rotatable shaft; a tube surrounding the rotatable shaft; a linkage connected to the tube wherein the linkage is a four bar linkage that is configured to guide movement of the tube between a raised position and a lowered position, wherein, in the raised position, the connection end of the rotatable shaft is engaged with the input shaft, and in the lowered position, the connection end of the rotatable shaft is separated from the input shaft, wherein as the tube is moved from the raised position to the lowered position, in a first movement, the linkage is configured to initially translate the tube in a first direction, and in a second movement, the linkage is configured to rotate the tube to the lowered position. an input shaft that is rotatable about an axis of rotation; a rotatable shaft having flightings and a first connection end that is configured to be releasably engaged with said input shaft for rotating the rotatable shaft; a tube surrounding the rotatable shaft; a linkage connected to the tube wherein the linkage is a four bar linkage that is configured to guide movement of the tube between a raised position and a lowered position, wherein, in the raised position, the connection end of the rotatable shaft is engaged with the input shaft, and in the lowered position, the connection end of the rotatable shaft is separated from the input shaft, wherein as the tube is moved from the raised position to the lowered position, in a first movement, the linkage is configured to initially translate the tube in a first direction, and in a second movement, the linkage is configured to rotate the tube to the lowered position.
A method, comprising: applying a multi-branched dendritic tag to an article or to a container comprising an article, wherein the multi-branched dendritic tag is obtainable by a stochastic electrodeposition process; obtaining at least one image of the multi-branched dendritic tag; analyzing the at least one image to identify a set of features associated with the multi-branched dendritic tag wherein the set of features comprises an origin of the multi-branched dendritic structure, branch points of the multi-branched dendritic structure, and termination points of branches of the multi-branched dendritic structure; and compare the set of features to reference information for a plurality of multi-branched dendritic structures to determine information about the article,; and creating a database record comprising information about an identity of the article and the set of features associated with the multi-branched dendritic tag. applying a multi-branched dendritic tag to an article or to a container comprising an article, wherein the multi-branched dendritic tag is obtainable by a stochastic electrodeposition process; obtaining at least one image of the multi-branched dendritic tag; analyzing the at least one image to identify a set of features associated with the multi-branched dendritic tag wherein the set of features comprises an origin of the multi-branched dendritic structure, branch points of the multi-branched dendritic structure, and termination points of branches of the multi-branched dendritic structure; and compare the set of features to reference information for a plurality of multi-branched dendritic structures to determine information about the article,; and creating a database record comprising information about an identity of the article and the set of features associated with the multi-branched dendritic tag.
A continuous casting mold tapered downwards comprising: two long-side molds; and two short-side molds 40 sealing a space between the two long-side molds and formed with projections 42 on both ends thereof to form chamfers at corners of a slab, wherein the projection 42 of the short-side mold 40 is reduced downwards to compensate a shrinkage amount of the slab. two long-side molds; and two short-side molds 40 sealing a space between the two long-side molds and formed with projections 42 on both ends thereof to form chamfers at corners of a slab, wherein the projection 42 of the short-side mold 40 is reduced downwards to compensate a shrinkage amount of the slab.
A method of driving an actuator, the actuator comprising an electroactive polymer structure for adopting at least a first actuation state and a second actuation state different from the first actuation state, the first actuation state having a first voltage associated with it and the second actuation state having a second voltage associated with it; the method comprising: - applying a drive signal having a drive signal voltage to the electroactive polymer structure for switching it from the first actuation state to the second actuation state, wherein the drive signal comprises: - an overdrive period in which the drive signal voltage is changed from the first voltage to an overdrive voltage by an amount that exceeds the difference between the second voltage and the first voltage; and - after the overdrive period, a holding period at least at the beginning of which the drive signal voltage is at the second voltage. - applying a drive signal having a drive signal voltage to the electroactive polymer structure for switching it from the first actuation state to the second actuation state, wherein the drive signal comprises: - an overdrive period in which the drive signal voltage is changed from the first voltage to an overdrive voltage by an amount that exceeds the difference between the second voltage and the first voltage; and - after the overdrive period, a holding period at least at the beginning of which the drive signal voltage is at the second voltage.
A downlink data transmission method performed by a mobility management entity, MME, in a wireless communication system, the method comprising: transmitting data through an S11-U bearer on a control plane in a control plane optimization, CP Opt, mode; receiving an update bearer request including information necessary for transmitting downlink data, which is configured to be transmitted over a control plane and is greater than a predetermined size, over a user plane from a serving gateway, SGW, wherein the information comprises a big data flag indicating whether the SGW receives the downlink data greater than the predetermined size from a packet gateway, PGW, an internet protocol, IP, address, an interface type, and a tunnel endpoint identifier, TEID, of the SGW for establishing a connection between a base station and the SGW; transmitting an evolved-radio access bearer, E-RAB, setup request including a radio bearer between a terminal and a base station, and an S1 bearer on the user plane between the base station and the SGW to the base station based on the information, wherein the E-RAB setup request comprises the IP address, the interface type, and the TEID; and transmitting the downlink data to the terminal through the E-RAB established according to the E-RAB setup request. transmitting data through an S11-U bearer on a control plane in a control plane optimization, CP Opt, mode; receiving an update bearer request including information necessary for transmitting downlink data, which is configured to be transmitted over a control plane and is greater than a predetermined size, over a user plane from a serving gateway, SGW, wherein the information comprises a big data flag indicating whether the SGW receives the downlink data greater than the predetermined size from a packet gateway, PGW, an internet protocol, IP, address, an interface type, and a tunnel endpoint identifier, TEID, of the SGW for establishing a connection between a base station and the SGW; transmitting an evolved-radio access bearer, E-RAB, setup request including a radio bearer between a terminal and a base station, and an S1 bearer on the user plane between the base station and the SGW to the base station based on the information, wherein the E-RAB setup request comprises the IP address, the interface type, and the TEID; and transmitting the downlink data to the terminal through the E-RAB established according to the E-RAB setup request.
An anodic porous alumina having interconnected through nanopores having diameter comprised between 20 and 300 nm, in the form of microparticles having a particle size of at least 5 micrometres.
A seeded sublimation method of growing large single crystals of silicon carbide with reduced defects, the method comprising: nucleating growth on a seed crystal growth face that is 4°off-axis from the plane of the seed crystal; while establishing a major growth temperature gradient between the silicon carbide seed crystal and a silicon carbide source composition that is perpendicular to the basal plane of the off-axis crystal, positioning the seed crystal on a seed holder with the macroscopic growth face of the seed crystal at an angle of 86° with respect to the major growth temperature gradient. nucleating growth on a seed crystal growth face that is 4°off-axis from the plane of the seed crystal; while establishing a major growth temperature gradient between the silicon carbide seed crystal and a silicon carbide source composition that is perpendicular to the basal plane of the off-axis crystal, positioning the seed crystal on a seed holder with the macroscopic growth face of the seed crystal at an angle of 86° with respect to the major growth temperature gradient.
A method of forming a compound of formula (IIIa): wherein: R 1 in each occurrence is independently selected from H, halogen, amino, C 1-5 alkyl, C 2-5 alkenyl and C 2-5 alkynyl; R 2 in each occurrence is independently selected from H, halogen, amino, C 1-5 alkyl, C 2-5 alkenyl and C 2-5 alkynyl; R 4 is C 1-5 alkyl; and R 6 is a C 1-5 fluoroalkyl; and PG is a protecting group, the method comprising the step of reacting a compound of formula (IIa) with a compound of formula (VIII): R 1 in each occurrence is independently selected from H, halogen, amino, C 1-5 alkyl, C 2-5 alkenyl and C 2-5 alkynyl; R 2 in each occurrence is independently selected from H, halogen, amino, C 1-5 alkyl, C 2-5 alkenyl and C 2-5 alkynyl; R 4 is C 1-5 alkyl; and R 6 is a C 1-5 fluoroalkyl; and PG is a protecting group, the method comprising the step of reacting a compound of formula (IIa) with a compound of formula (VIII):
An apparatus comprising: a remote terminal unit RTU comprising: a housing, at least a portion of the housing comprising a shell of thermally-conductive material; at least one circuit board assembly comprising at least one processing device configured to communicate with one or more industrial control and automation field devices via one or more input/output I/O channels (606a-606n), the at least one circuit board assembly positioned within the shell; a heat sink configured to remove thermal energy from the at least one processing device; a thermal pad configured to receive the thermal energy from the heat sink and to provide the thermal energy to the shell; and one or more control algorithms executed by the RTU and configured to disable one or more components within analog input I/O channels during idle periods in between sampling periods during which data on the analog input I/O channels is sampled. a remote terminal unit RTU comprising: a housing, at least a portion of the housing comprising a shell of thermally-conductive material; at least one circuit board assembly comprising at least one processing device configured to communicate with one or more industrial control and automation field devices via one or more input/output I/O channels (606a-606n), the at least one circuit board assembly positioned within the shell; a heat sink configured to remove thermal energy from the at least one processing device; a thermal pad configured to receive the thermal energy from the heat sink and to provide the thermal energy to the shell; and a housing, at least a portion of the housing comprising a shell of thermally-conductive material; at least one circuit board assembly comprising at least one processing device configured to communicate with one or more industrial control and automation field devices via one or more input/output I/O channels (606a-606n), the at least one circuit board assembly positioned within the shell; a heat sink configured to remove thermal energy from the at least one processing device; a thermal pad configured to receive the thermal energy from the heat sink and to provide the thermal energy to the shell; and one or more control algorithms executed by the RTU and configured to disable one or more components within analog input I/O channels during idle periods in between sampling periods during which data on the analog input I/O channels is sampled.
A pressure sensor which detects variation in pressure, comprising: a hollow sensor main body which includes a cavity formed inside the sensor main body and a communication opening which allows the cavity and the outside of the sensor main body to communicate with each other; and a cantilever which is disposed so as to partially close the communication opening in a cantilever state in which a distal end portion of the cantilever is a free end with a gap being part of the communication opening and being formed between the distal end portion of the cantilever and a frame portion of the hollow sensor main body, and a proximal end portion of the cantilever is supported by the sensor main body, and which bends according to a pressure difference between the cavity and the outside of the sensor main body, characterized in that the proximal end portion is partitioned into a plurality of branch portions (24, 25, 26, 27) by first, second, and third gaps (21, 22, 23) in a second direction orthogonal to a first direction in which the proximal end portion and the distal end portion are connected to each other in plan view, and wherein some of the plurality of branch portions (24, 25, 26, 27) form first and second support portions (24, 25) and some form first and second displacement detection portions (26, 27) which detect displacement according to the bending of the cantilever on the basis of a change in a resistance value corresponding to the displacement wherein the displacement detection portions (26, 27) are electrically partitioned in the second direction by the gap, a piezoresistor is provided as a doped layer in the displacement detection portions (26, 27), and, wherein the displacement detection portions (26, 27) are electrically connected to each other via the piezoresistor so as to, in plan view, wrap around the outside of the third gap. a hollow sensor main body which includes a cavity formed inside the sensor main body and a communication opening which allows the cavity and the outside of the sensor main body to communicate with each other; and a cantilever which is disposed so as to partially close the communication opening in a cantilever state in which a distal end portion of the cantilever is a free end with a gap being part of the communication opening and being formed between the distal end portion of the cantilever and a frame portion of the hollow sensor main body, and a proximal end portion of the cantilever is supported by the sensor main body, and which bends according to a pressure difference between the cavity and the outside of the sensor main body,
A receiver (400; 500) comprising: an amplifier (406; 506) having an input and an output, wherein the input of the amplifier is configured to receive a signal; and a feedback path (412; 512) between the output and the input of the amplifier (406; 506), wherein the feedback path (412; 512) includes a tuneable filter (402; 502) and a buffer amplifier (414; 514) in series, wherein the input of the buffer amplifier (414; 514) is connected to the output (410; 510) of the amplifier (406; 506), the output of the buffer amplifier (414; 514) is connected to the input of the tuneable filter (402; 502), the output of the tuneable filter (402; 502) is connected to the input (408; 508) of the amplifier (406; 506), characterised in that the tuneable filter (402; 502) comprises a selective filter having a centre frequency that is programmable to track the frequency of a wanted channel and is configured to pass signals having a desired frequency an amplifier (406; 506) having an input and an output, wherein the input of the amplifier is configured to receive a signal; and a feedback path (412; 512) between the output and the input of the amplifier (406; 506), wherein the feedback path (412; 512) includes a tuneable filter (402; 502) and a buffer amplifier (414; 514) in series, wherein the input of the buffer amplifier (414; 514) is connected to the output (410; 510) of the amplifier (406; 506), the output of the buffer amplifier (414; 514) is connected to the input of the tuneable filter (402; 502), the output of the tuneable filter (402; 502) is connected to the input (408; 508) of the amplifier (406; 506), characterised in that
An information processing apparatus comprising: an acquisition unit that is configured to acquire music information; an extraction unit that is configured to extract, from the music information acquired by the acquisition unit, a plurality of types of feature amounts being at least one of chord progression information indicating a chord progression, melody information indicating a melody, and a bass signal indicating a bass progression in a bar having a prescribed length; and a generation unit that is configured to: generate information in which the plurality of types of feature amounts extracted by the extraction unit is associated with a style information identifier as music feature information to be used as learning data in composition processing using machine learning, generate score information including the at least one of chord progression information, melody information, and the bass signal, and set the score information as a component of the music feature information. an acquisition unit that is configured to acquire music information; an extraction unit that is configured to extract, from the music information acquired by the acquisition unit, a plurality of types of feature amounts being at least one of chord progression information indicating a chord progression, melody information indicating a melody, and a bass signal indicating a bass progression in a bar having a prescribed length; and a generation unit that is configured to: generate information in which the plurality of types of feature amounts extracted by the extraction unit is associated with a style information identifier as music feature information to be used as learning data in composition processing using machine learning, generate score information including the at least one of chord progression information, melody information, and the bass signal, and set the score information as a component of the music feature information.