mhurhangee/ep-ind-claims huggingface dataset:
A method for processing data, applied to a control device, comprising: monitoring an operation instruction for a state parameter of a controlled device; and responsive to monitoring an operation instruction representing saving of the state parameter, determining a present state parameter of the controlled device, and saving the determined present state parameter as a state parameter in a preset mode; wherein the method further comprises: determining whether a configuration of the preset mode is turned on; and acquiring the state parameter of the controlled device when the configuration of the preset mode is turned on; wherein the method further comprises: responsive to monitoring an operation instruction representing regulation of the state parameter, determining the controlled device that the operation instruction representing regulation is for, and an amplitude parameter by which the regulation is to be performed based on the state parameter; and sending the amplitude parameter to the controlled device that the operation instruction is for, and updating the state parameter in the preset mode according to the amplitude parameter. monitoring an operation instruction for a state parameter of a controlled device; and responsive to monitoring an operation instruction representing saving of the state parameter, determining a present state parameter of the controlled device, and saving the determined present state parameter as a state parameter in a preset mode; wherein the method further comprises: determining whether a configuration of the preset mode is turned on; and acquiring the state parameter of the controlled device when the configuration of the preset mode is turned on; determining whether a configuration of the preset mode is turned on; and acquiring the state parameter of the controlled device when the configuration of the preset mode is turned on; wherein the method further comprises: responsive to monitoring an operation instruction representing regulation of the state parameter, determining the controlled device that the operation instruction representing regulation is for, and an amplitude parameter by which the regulation is to be performed based on the state parameter; and sending the amplitude parameter to the controlled device that the operation instruction is for, and updating the state parameter in the preset mode according to the amplitude parameter. responsive to monitoring an operation instruction representing regulation of the state parameter, determining the controlled device that the operation instruction representing regulation is for, and an amplitude parameter by which the regulation is to be performed based on the state parameter; and sending the amplitude parameter to the controlled device that the operation instruction is for, and updating the state parameter in the preset mode according to the amplitude parameter.
Tamper protection device for protecting a field device against tampering, comprising a tamper protection carrier, wherein the tamper protection carrier is designed as a foil, and at least one electronic memory, wherein the at least one electronic memory is disposed in at least one partial area on the tamper protection carrier, and the at least one electronic memory stores at least one predefinable security information item, and wherein the at least one electronic memory is designed to modify the predefinable security information item in the event of at an least partial damage to the tamper protection device.
A polariser for a bicone antenna, wherein the polariser is arranged to extend circumferentially around the bicone antenna and comprises vanes that extend radially away from the bicone antenna, the vanes are oriented obliquely to the electrical field of linearly polarised electromagnetic waves propagated from the bicone antenna and are configured to convert the linear polarisation of the electromagnetic waves to or towards circular polarisation; wherein the polariser comprises a hub about which the vanes are supported, characterised in that the hub is arranged to support first and second cones of the bicone antenna and physically and electrically isolate first and second radiating surfaces of the first and second cones of the bicone antenna; and wherein the polariser is comprised of a single integral piece of dielectric material that defines the vanes and, at least in part, the hub.
A method of preparing spray-dried flavor-containing particles, comprising the addition of flavor to an aqueous, sugar-free matrix and spray-drying the resulting blend, the matrix comprising an emulsifier, a film former and at least one metal salt, selected from the ferrous, alkali metal and alkaline earth metal salts of citric, gluconic and tartaric acids, wherein the at least one salt is present at a concentration of from 10-30% by weight of the non-flavor particle constituents, and wherein the matrix proportion of the particle is from 10-90% by weight..
A subassembly for a gas turbine engine having a longitudinal engine axis, the subassembly comprising: a carrier (120, 301, 800) having one or more support features to couple to a casing of an engine, the carrier including a downstream end and an upstream end, the upstream end of the carrier including a radially inward arm (186, 302A, 302B) extending toward the engine axis; and a vane assembly including a vane having at least one vane airfoil extending radially between inner and outer vane platforms (132,134); and a radially floating heat shield (105, 315, 815) including an outer end and an inner end, the outer end of the heat shield (105, 315, 815) coupled to the radially inward arm (186, 302A, 302B) via a joint configured to allow movement of the heat shield (105, 315, 815) relative to the radially inward arm (186, 302A, 302B), characterized in that the heat shield (105, 315, 815) is configured to move radially inward relative to the carrier (120, 301, 800) to maintain contact with the outer platform of a vane of the gas turbine engine in response to thermal contraction of the vane. a carrier (120, 301, 800) having one or more support features to couple to a casing of an engine, the carrier including a downstream end and an upstream end, the upstream end of the carrier including a radially inward arm (186, 302A, 302B) extending toward the engine axis; and a vane assembly including a vane having at least one vane airfoil extending radially between inner and outer vane platforms (132,134); and a radially floating heat shield (105, 315, 815) including an outer end and an inner end, the outer end of the heat shield (105, 315, 815) coupled to the radially inward arm (186, 302A, 302B) via a joint configured to allow movement of the heat shield (105, 315, 815) relative to the radially inward arm (186, 302A, 302B), characterized in that the heat shield (105, 315, 815) is configured to move radially inward relative to the carrier (120, 301, 800) to maintain contact with the outer platform of a vane of the gas turbine engine in response to thermal contraction of the vane.
A railcar comprising: an underframe including a pair of side sills located at both respective ends of the underframe in a car width direction and extending in a car longitudinal direction and a plurality of cross beams coupling the pair of side sills to each other in the car width direction; at least one underfloor device hung by the cross beams; and an underfloor cover covering an underfloor portion of the underframe, characterized in that the underfloor cover includes upper and lower plate-shaped members (81, 82) made of stainless steel, the upper and lower plate-shaped members (81, 82) being located lower than the underfloor device and being at least partially spaced apart from each other in an upward/downward direction, the upper and lower plate-shaped members (81, 82) being provided in a range of a bottom portion of the underfloor cover, the range not overlapping the underfloor device in a plan view. an underframe including a pair of side sills located at both respective ends of the underframe in a car width direction and extending in a car longitudinal direction and a plurality of cross beams coupling the pair of side sills to each other in the car width direction; a pair of side sills located at both respective ends of the underframe in a car width direction and extending in a car longitudinal direction and a plurality of cross beams coupling the pair of side sills to each other in the car width direction; at least one underfloor device hung by the cross beams; and an underfloor cover covering an underfloor portion of the underframe, characterized in that the underfloor cover includes upper and lower plate-shaped members (81, 82) made of stainless steel, the upper and lower plate-shaped members (81, 82) being located lower than the underfloor device and being at least partially spaced apart from each other in an upward/downward direction, the upper and lower plate-shaped members (81, 82) being provided in a range of a bottom portion of the underfloor cover, the range not overlapping the underfloor device in a plan view.
A DNA of the following (a), (b), (c) or (d): (a) a DNA encoding a polypeptide having an amino acid sequence shown in SEQ ID NO: 1; (b) a DNA encoding a polypeptide having an amino acid sequence showing a homology of not less than 90% with the amino acid sequence shown in SEQ ID NO: 1, and having a D-amino acid oxidase activity; (c) a DNA having a base sequence shown in SEQ ID NO: 2; (d) a DNA having a base sequence showing a homology of not less than 80% with the base sequence shown in SEQ ID NO: 2, and encoding a polypeptide having a D-amino acid oxidase activity. (a) a DNA encoding a polypeptide having an amino acid sequence shown in SEQ ID NO: 1; (b) a DNA encoding a polypeptide having an amino acid sequence showing a homology of not less than 90% with the amino acid sequence shown in SEQ ID NO: 1, and having a D-amino acid oxidase activity; (c) a DNA having a base sequence shown in SEQ ID NO: 2; (d) a DNA having a base sequence showing a homology of not less than 80% with the base sequence shown in SEQ ID NO: 2, and encoding a polypeptide having a D-amino acid oxidase activity.
Multi-connector device comprising a first plate connectable to a vehicle or apparatus and supporting a plurality of connectors, each of said connectors being connectable to a hydraulic line and being adapted to being connected to corresponding connectors of a second multi-connector plate for the connection of said hydraulic lines with a point of use, at least one of said connectors of said first plate comprising connecting means (32, 33, 34, 35) for connecting and firmly retaining a single connector and disconnecting means that can be manually operated by the user and are adapted to interact with said connecting means (32, 33, 34, 35) to allow the release of the individual connector, wherein said connecting means of said at least one connector comprise a hollow, cylindrical ball housing, a plurality of balls that are mobile in a radial direction between a first expanded position and a second retracted position, an outer hollow, cylindrical ring adapted to slide longitudinally along said ball housing, said cylindrical ring being maintained in the most forward position corresponding to a condition wherein the balls are in retracted position by operation of a contrast spring that acts between said ball housing and said ring, and said disconnecting means that can be manually operated by the user include a pusher which is attached to said ring characterised in that said pusher comprises a first ring-shaped portion from which a flat portion adapted to be pressed by the user integrally extends in a radial direction, the multi-connector device further comprising on said first plate, at each of said connectors adapted to be individually engageable, a housing slot for the pusher.
A bit rate allocation method for a bit rate allocation device, comprising: - obtaining an intra prediction frame, I-frame, of a to-be-encoded video, and obtaining bit rate characteristic parameters associated with the I-frame (S101, S201), the bit rate characteristic parameters comprising: • the number of video frames in a group of pictures, GOP, in which the I-frame is located, • the number of pixels of the I-frame; and - determining an allocated bit rate of the I-frame according to each bit rate characteristic parameter, characterized in that the bit rate characteristic parameters further comprise: • a percentage of intra prediction macroblocks in the one or more P-frames that are before the I-frame. - obtaining an intra prediction frame, I-frame, of a to-be-encoded video, and obtaining bit rate characteristic parameters associated with the I-frame (S101, S201), the bit rate characteristic parameters comprising: • the number of video frames in a group of pictures, GOP, in which the I-frame is located, • the number of pixels of the I-frame; and • the number of video frames in a group of pictures, GOP, in which the I-frame is located, • the number of pixels of the I-frame; and - determining an allocated bit rate of the I-frame according to each bit rate characteristic parameter, characterized in that the bit rate characteristic parameters further comprise: • a percentage of intra prediction macroblocks in the one or more P-frames that are before the I-frame. • a percentage of intra prediction macroblocks in the one or more P-frames that are before the I-frame.
An audio encoding method, wherein the method comprises: obtaining a current frame of an audio signal, wherein the current frame comprises a high frequency band signal and a low frequency band signal; obtaining a first encoding parameter of the current frame based on the high frequency band signal and the low frequency band signal; obtaining a second encoding parameter of the current frame based on the high frequency band signal, wherein the second encoding parameter comprises tone component information of the high frequency band signal; obtaining a third encoding parameter of the current frame based on the high frequency band signal, wherein the third encoding parameter comprises sub-band envelope information of a part of sub-band of the high frequency band signal that needs to be encoded; and performing bitstream multiplexing on the first encoding parameter, the second encoding parameter, and the third encoding parameter, to obtain an encoded bitstream. obtaining a current frame of an audio signal, wherein the current frame comprises a high frequency band signal and a low frequency band signal; obtaining a first encoding parameter of the current frame based on the high frequency band signal and the low frequency band signal; obtaining a second encoding parameter of the current frame based on the high frequency band signal, wherein the second encoding parameter comprises tone component information of the high frequency band signal; obtaining a third encoding parameter of the current frame based on the high frequency band signal, wherein the third encoding parameter comprises sub-band envelope information of a part of sub-band of the high frequency band signal that needs to be encoded; and performing bitstream multiplexing on the first encoding parameter, the second encoding parameter, and the third encoding parameter, to obtain an encoded bitstream.
A valve assembly comprising: a valve body having a process fluid access passage extending through the valve body from a process fluid port to an access port; a block valve disposed in the fluid access passage, said block valve being operable between open and closed conditions; an access blocking device disposed in the process fluid access passage between the access port and the block valve, the access blocking device being moveable from an access blocking condition in which access to the block valve through the access port is blocked, to an access permitting condition in which access to the block valve through the access port is permitted; characterized in that the valve assembly comprises a valve interlock arrangement configured such that operability of one of the block valve and the access blocking device is a function of an operational state of the other of the block valve and the access blocking device; and in that the access blocking device includes an internal passage comprising a central cylindrical bore and first and second notches (822, 824) intersecting bore edges at opposite ends of the internal passage, wherein the first and second notches (822, 824) provide an increased contact area between the access blocking device and a probe inserted through the central cylindrical bore to reduce stress applied to the probe when the access blocking device is moved from the access permitting position toward the access blocking position and into contact with the probe. a valve body having a process fluid access passage extending through the valve body from a process fluid port to an access port; a block valve disposed in the fluid access passage, said block valve being operable between open and closed conditions; an access blocking device disposed in the process fluid access passage between the access port and the block valve, the access blocking device being moveable from an access blocking condition in which access to the block valve through the access port is blocked, to an access permitting condition in which access to the block valve through the access port is permitted; characterized in that the valve assembly comprises a valve interlock arrangement configured such that operability of one of the block valve and the access blocking device is a function of an operational state of the other of the block valve and the access blocking device; and in that the access blocking device includes an internal passage comprising a central cylindrical bore and first and second notches (822, 824) intersecting bore edges at opposite ends of the internal passage, wherein the first and second notches (822, 824) provide an increased contact area between the access blocking device and a probe inserted through the central cylindrical bore to reduce stress applied to the probe when the access blocking device is moved from the access permitting position toward the access blocking position and into contact with the probe.
Angle measuring unit for determining the relative angular position of two components (3, 4) which are disposed so as to be rotatable about a rotation axis, the angle measuring unit having - a cap; - a connector cable comprising a fixing region (2.1) which has a longitudinal axis; and - a receptacle device (1.1), which is disposed on the cap, for receiving the fixing region (2.1) of the connector cable, wherein the receptacle device (1.1) has an undercut (1.11) for holding the fixing region (2.1) in a formfitting manner in a direction with a directional component being orthogonal to the longitudinal axis, wherein the longitudinal axis of the fixing region (2.1) in a position in which the fixing region (2.1) is located on the receptacle device (1.1) comes to lie in a first axis, the longitudinal axis of the fixing region by way of movement along a second axis is introducible into the undercut (1.11) of the receptacle device (1.1), wherein the second axis is aligned so as to be inclined in relation to the first axis. - a cap; - a connector cable comprising a fixing region (2.1) which has a longitudinal axis; and - a receptacle device (1.1), which is disposed on the cap, for receiving the fixing region (2.1) of the connector cable, wherein the receptacle device (1.1) has an undercut (1.11) for holding the fixing region (2.1) in a formfitting manner in a direction with a directional component being orthogonal to the longitudinal axis, wherein
A modular power system for providing power to a downhole tool, comprising: a high temperature rechargeable energy storage, HTRES,, and a modular signal interface device, MSID, module for controlling at least one of the power provided to a downhole tool connected to the modular power system and the charge-discharge cycles of the HTRES, wherein the MSID is adapted to connect to a downhole power source; wherein the HTRES comprises an ultracapacitor comprising an advanced electrolyte system, AES, and wherein the ultracapacitor comprises a positive electrode and a negative electrode, wherein at least one electrode comprises an energy storage media, the energy storage media comprising carbon nanotubes; characterised in that the AES comprises a salt of the following formula: wherein R 1 is straight-chain or branched alkyl having 1 to 4 carbon atoms, R 2 is methyl or ethyl, and X - is [ B 4]- or [ BF n 4-n]- where n = 0, 1, 2 or 3; wherein the AES is purified to contain less than 1000 ppm of chloride ions, less than about 100 ppm of fluoride ions, and/or less than about 100 ppm of water; wherein the energy storage media consists of at least 98% by mass elemental carbon; and wherein at least one of the electrodes has a moisture content of less than 350 ppm and chloride content of less than 300 ppm. a high temperature rechargeable energy storage, HTRES,, and a modular signal interface device, MSID, module for controlling at least one of the power provided to a downhole tool connected to the modular power system and the charge-discharge cycles of the HTRES, wherein the MSID is adapted to connect to a downhole power source; wherein the HTRES comprises an ultracapacitor comprising an advanced electrolyte system, AES, and wherein the ultracapacitor comprises a positive electrode and a negative electrode, wherein at least one electrode comprises an energy storage media, the energy storage media comprising carbon nanotubes; characterised in that the AES comprises a salt of the following formula: wherein R 1 is straight-chain or branched alkyl having 1 to 4 carbon atoms, R 2 is methyl or ethyl, and X - is [ B 4]- or [ BF n 4-n]- where n = 0, 1, 2 or 3; wherein the AES is purified to contain less than 1000 ppm of chloride ions, less than about 100 ppm of fluoride ions, and/or less than about 100 ppm of water; wherein the energy storage media consists of at least 98% by mass elemental carbon; and wherein at least one of the electrodes has a moisture content of less than 350 ppm and chloride content of less than 300 ppm.