mhurhangee/ep-ind-claims huggingface dataset:
A single-phase diverter switch for a column-type on-load tap changer, comprising: an insulating carrier plate having a first carrier section, and having a second carrier section, wherein the first carrier section and the second carrier section are separate from one another and are arranged substantially in the same plane of the diverter switch perpendicular to a rotation axis of a central shaft of the diverter switch; an interrupter arrangement disposed on the first carrier section of the insulating carrier plate, the interrupter arrangement including a first main interrupter, a second main interrupter and a transition phase interrupter; a disconnector arrangement disposed on the second carrier section of the insulating carrier plate, the disconnector arrangement including a first disconnector electrically connected to the first main interrupter and a second disconnector electrically connected to the second main interrupter, wherein at least one cam is mounted on the central shaft that is arranged such that upon rotating a central shaft and depending on the rotational position thereof, the at least one cam acts on the first main interrupter, the second main interrupter, or the transition phase interrupter such that respective connection states of the interrupter arrangement and of the disconnector arrangement are controllable according to a predetermined switching sequence. an insulating carrier plate having a first carrier section, and having a second carrier section, wherein the first carrier section and the second carrier section are separate from one another and are arranged substantially in the same plane of the diverter switch perpendicular to a rotation axis of a central shaft of the diverter switch; an interrupter arrangement disposed on the first carrier section of the insulating carrier plate, the interrupter arrangement including a first main interrupter, a second main interrupter and a transition phase interrupter; a disconnector arrangement disposed on the second carrier section of the insulating carrier plate, the disconnector arrangement including a first disconnector electrically connected to the first main interrupter and a second disconnector electrically connected to the second main interrupter, wherein at least one cam is mounted on the central shaft that is arranged such that upon rotating a central shaft and depending on the rotational position thereof, the at least one cam acts on the first main interrupter, the second main interrupter, or the transition phase interrupter such that respective connection states of the interrupter arrangement and of the disconnector arrangement are controllable according to a predetermined switching sequence.
A method of using a superhard element comprising polycrystalline cubic boron nitride, PCBN, comprising cubic boron nitride, cBN, grains and whiskers of silicon carbide having a mean length in the range from 5 microns to 15 microns and a mean width in the range from 0.5 micron to 2 microns, the whiskers being dispersed within a binder matrix, the binder matrix comprising a compound including titanium, the content of the cBN grains being at least 50 weight per cent and the content of the silicon carbide whiskers being at least 1 weight percent and at most 6 weight percent of the binder matrix; the method including providing a machine tool comprising the superhard element and using the tool to machine a work-piece body comprising a Ni-Cr-based superalloy material.
A method for registering an optical network unit, ONU, applied to the ONU, comprising: determining a current work type of the ONU according to a work type supported currently by the ONU and a downlink message from an optical line terminal, OLT, wherein the downlink message is configured to indicate a work type of the ONU supported by the OLT; and completing a registration to the OLT based on the determined current work type of the ONU, wherein the work type of the ONU is selected from one of a non-low-latency work type and a low-latency work type, and wherein, in a case that the ONU supports a low-latency service uplink wavelength, a low-latency service downlink wavelength and an uplink wavelength for registration, the work type of the ONU is a first type of low-latency type among low-latency work types; and in a case that the ONU supports the low-latency service uplink wavelength, the low-latency service downlink wavelength, the uplink wavelength for registration and a downlink wavelength for registration, the work type of the ONU is a second type of low-latency type among the low-latency work types, wherein, the first type of low-latency type and the second type of low-latency type are different low-latency work types. determining a current work type of the ONU according to a work type supported currently by the ONU and a downlink message from an optical line terminal, OLT, wherein the downlink message is configured to indicate a work type of the ONU supported by the OLT; and completing a registration to the OLT based on the determined current work type of the ONU, wherein the work type of the ONU is selected from one of a non-low-latency work type and a low-latency work type, and wherein, in a case that the ONU supports a low-latency service uplink wavelength, a low-latency service downlink wavelength and an uplink wavelength for registration, the work type of the ONU is a first type of low-latency type among low-latency work types; and in a case that the ONU supports the low-latency service uplink wavelength, the low-latency service downlink wavelength, the uplink wavelength for registration and a downlink wavelength for registration, the work type of the ONU is a second type of low-latency type among the low-latency work types, wherein, the first type of low-latency type and the second type of low-latency type are different low-latency work types.
An information processing apparatus, comprising: means for acquiring first collected data related to each of a plurality of lithographic processing executed by applying a first processing condition for controlling a lithography apparatus to execute lithographic processing for forming a pattern and second collected data related to each of a plurality of lithographic processing executed by applying a second processing condition, at least partially different from the first processing condition, for controlling the lithography apparatus, means for acquiring a first allowable range calculated based on a statistical value of accumulated data comprising a plurality of sets of the first collected data and acquiring a second allowable range calculated based on a statistical value of accumulated data comprising a plurality of sets of the second collected data, and means for judging that an abnormality has occurred in third collected data in a case where the third collected data related to lithographic processing executed by applying the first processing condition is out of the first allowable range, and judging that an abnormality has occurred in fourth collected data in a case where the fourth collected data related to lithographic processing executed by applying the second processing condition is out of the second allowable range. means for acquiring first collected data related to each of a plurality of lithographic processing executed by applying a first processing condition for controlling a lithography apparatus to execute lithographic processing for forming a pattern and second collected data related to each of a plurality of lithographic processing executed by applying a second processing condition, at least partially different from the first processing condition, for controlling the lithography apparatus, means for acquiring a first allowable range calculated based on a statistical value of accumulated data comprising a plurality of sets of the first collected data and acquiring a second allowable range calculated based on a statistical value of accumulated data comprising a plurality of sets of the second collected data, and means for judging that an abnormality has occurred in third collected data in a case where the third collected data related to lithographic processing executed by applying the first processing condition is out of the first allowable range, and judging that an abnormality has occurred in fourth collected data in a case where the fourth collected data related to lithographic processing executed by applying the second processing condition is out of the second allowable range.
A system to control a linear compressor to generate a freezing force as a piston reciprocates according to a linear movement of a motor which receives alternating current power through a triac Tr1, the system comprising: a current zero crossing detection unit to detect crossing of the current applied to the motor; a position detection unit to detect motor displacement; a resonant point determination unit which determines a point at which a magnitude of a phase difference between a zero current crossing detected by the current zero-crossing detection unit and the motor displacement by the position detection unit is within a predetermined range as a resonant point which is a point where the center point of the piston reciprocation is controlled to coincide with a center of teeth of a stator of the motor; and a controller to move up or delay a trigger signal corresponding to an absorption cycle or a compression cycle such that the center point of the piston reaches the resonant point when the phase difference of the motor deviate from the predetermined ranges. a current zero crossing detection unit to detect crossing of the current applied to the motor; a position detection unit to detect motor displacement; a resonant point determination unit which determines a point at which a magnitude of a phase difference between a zero current crossing detected by the current zero-crossing detection unit and the motor displacement by the position detection unit is within a predetermined range as a resonant point which is a point where the center point of the piston reciprocation is controlled to coincide with a center of teeth of a stator of the motor; and a controller to move up or delay a trigger signal corresponding to an absorption cycle or a compression cycle such that the center point of the piston reaches the resonant point when the phase difference of the motor deviate from the predetermined ranges.
A suction hood system (10, 10', 10", 10"', 10""), comprising: a housing; and a plurality of collecting units (12a-22a), wherein each collecting unit (12a-22a) of the plurality of collecting units (12a-22a) is movably attached to the housing via a bearing (12b-22b) and configured to be movable between a first position and a second position; and wherein neighboring collecting units (12a-22a) among the plurality of collecting units (12a-22a) abut on each other when being in the first positions and abut on each other when being in the second positions; wherein the plurality of collecting units (12a-22a) forms a ring-like shape when being in the first positions; wherein the plurality of collecting units (12a-22a) forms a ring-like shape when being in the second positions; characterized in that some or all of the bearings (12b-22b) are linear bearings and the bearings (12b-22b) allow for adjusting a size of a space circumferentially enclosed or confined by the collecting units (12a-22a), wherein each collecting unit (12a-22a) has a first surface that is parallel to a surface of a first abutting collecting unit (12a-22a) and a second surface that is parallel to a surface of a second abutting collecting unit (12a-22a), wherein a contact surface (26, 28) of two abutting collecting units (12a, 14a, 22a) is perpendicular to a bisecting line (30, 32) bisecting an angle between the directions of motion of the two abutting collecting units (12a, 14a, 22a). a housing; and a plurality of collecting units (12a-22a), wherein each collecting unit (12a-22a) of the plurality of collecting units (12a-22a) is movably attached to the housing via a bearing (12b-22b) and configured to be movable between a first position and a second position; and wherein neighboring collecting units (12a-22a) among the plurality of collecting units (12a-22a) abut on each other when being in the first positions and abut on each other when being in the second positions; wherein the plurality of collecting units (12a-22a) forms a ring-like shape when being in the first positions; wherein the plurality of collecting units (12a-22a) forms a ring-like shape when being in the second positions; characterized in that some or all of the bearings (12b-22b) are linear bearings and the bearings (12b-22b) allow for adjusting a size of a space circumferentially enclosed or confined by the collecting units (12a-22a), wherein each collecting unit (12a-22a) has a first surface that is parallel to a surface of a first abutting collecting unit (12a-22a) and a second surface that is parallel to a surface of a second abutting collecting unit (12a-22a), wherein a contact surface (26, 28) of two abutting collecting units (12a, 14a, 22a) is perpendicular to a bisecting line (30, 32) bisecting an angle between the directions of motion of the two abutting collecting units (12a, 14a, 22a).
Continuously performed process for producing a fibre-reinforced semifinished panel comprising the following operations: unrolling two, three, four, five, six or more unidirectionally fibre-reinforced semifinished products from rolls; joining the two, three, four, five, six or more unidirectionally fibre-reinforced semifinished products to afford a fibre-reinforced semifinished panel sheeting by ultrasonic welding; cutting the fibre-reinforced semifinished panel from the fibre-reinforced semifinished panel sheeting, wherein two, three, four, five, six or more face to face superposed unidirectionally fibre-reinforced semifinished products are inseparably conjoined by ultrasonic welding, wherein the fibre-reinforced semifinished products have a width of 500 to 1000 mm, wherein one sonotrode is employed per 20 to 100 mm in width of the fibre-reinforced semifinished products, and wherein no release means is required. unrolling two, three, four, five, six or more unidirectionally fibre-reinforced semifinished products from rolls; joining the two, three, four, five, six or more unidirectionally fibre-reinforced semifinished products to afford a fibre-reinforced semifinished panel sheeting by ultrasonic welding; cutting the fibre-reinforced semifinished panel from the fibre-reinforced semifinished panel sheeting,
A method operational on a transmitting device (404, 504), comprising: encoding data into one or more transport blocks (304, 610), each transport block including a plurality of code blocks in which the data is encoded; wirelessly transmitting the one or more transport blocks (304, 610) over a channel specific to a receiving device (402, 502), wherein the code blocks within the transport blocks (304, 610) are transmitted without redundancy information or with a desired amount of redundancy information; receiving, from the receiving device (402, 502), a total number of failed code blocks (716, 718) from the transmitted one or more transport blocks (304, 610); generating an error correction code over the code blocks within the one or more transport blocks (304, 610), wherein the error correction code is sufficient to recover the total number of failed code blocks (716, 718); transmitting the error correction code within a new transport block; the method being characterized by: transmitting additional new data code blocks along with the error correction code within the new transport block, wherein the error correction code also covers the new data code blocks. encoding data into one or more transport blocks (304, 610), each transport block including a plurality of code blocks in which the data is encoded; wirelessly transmitting the one or more transport blocks (304, 610) over a channel specific to a receiving device (402, 502), wherein the code blocks within the transport blocks (304, 610) are transmitted without redundancy information or with a desired amount of redundancy information; receiving, from the receiving device (402, 502), a total number of failed code blocks (716, 718) from the transmitted one or more transport blocks (304, 610); generating an error correction code over the code blocks within the one or more transport blocks (304, 610), wherein the error correction code is sufficient to recover the total number of failed code blocks (716, 718); transmitting the error correction code within a new transport block; the method being characterized by: transmitting additional new data code blocks along with the error correction code within the new transport block, wherein the error correction code also covers the new data code blocks.
A method of checking the authenticity of security documents, in particular banknotes, wherein authentic security documents comprise security features (41-49; 30; 10; 51, 52) printed, applied or otherwise provided on the security documents, which security features comprise characteristic visual features intrinsic to the processes used for producing the security documents, wherein said security features include intaglio patterns, line offset patterns, letterpress patterns (51, 52), optically-diffractive structures and/or combinations thereof, wherein the method comprises the steps of: - acquiring a sample image (c 0) of at least one region of interest (R.o.I.) of the surface of a candidate document to be authenticated, which region of interest encompasses at least a part of one of said security features; characterized in that - digitally processing said sample image (c 0) by performing a decomposition of the sample image (c 0) into at least one scale sub-space containing high resolution details d 1 1, d 2 1, d 3 1,... of the sample image (c 0) and extracting classifying features (σ 2, C,...) from said scale sub-space, which extracted classifying features (σ 2, C,...) are used to position the candidate document in a feature space enabling a classification of the candidate document; and - deriving an authenticity rating of the candidate document based on the extracted classifying features (σ 2, C,...) and the positioning of the candidate document in the feature space, wherein digitally processing the sample image includes: - performing a wavelet transform of said sample image (c 0) to derive at least one set of wavelet coefficients representative of the said high resolution details d 1 1, d 2 1, d 3 1,... of the sample image (c 0) at a fine scale; and - processing said wavelet coefficients to extract said classifying features (σ 2, C,...). - acquiring a sample image (c 0) of at least one region of interest (R.o.I.) of the surface of a candidate document to be authenticated, which region of interest encompasses at least a part of one of said security features; - digitally processing said sample image (c 0) by performing a decomposition of the sample image (c 0) into at least one scale sub-space containing high resolution details d 1 1, d 2 1, d 3 1,... of the sample image (c 0) and extracting classifying features (σ 2, C,...) from said scale sub-space, which extracted classifying features (σ 2, C,...) are used to position the candidate document in a feature space enabling a classification of the candidate document; and - deriving an authenticity rating of the candidate document based on the extracted classifying features (σ 2, C,...) and the positioning of the candidate document in the feature space, - performing a wavelet transform of said sample image (c 0) to derive at least one set of wavelet coefficients representative of the said high resolution details d 1 1, d 2 1, d 3 1,... of the sample image (c 0) at a fine scale; and - processing said wavelet coefficients to extract said classifying features (σ 2, C,...).
A method for controlling an instruction issuance sequence for a plurality of threads of a multithreaded processor, the method comprising the steps of: associating a register with each of the threads; storing a value in the register, the stored value updatable and identifying any desired next thread permitted to issue an instruction; and utilizing the stored value to control the instruction issuance sequence, wherein the multithreaded processor comprises a plurality of concurrently-executing hardware thread units, each of the hardware thread units being configurable to issue an instruction per processor clock cycle for a corresponding thread, the stored value for the corresponding thread indicating, for a given hardware thread unit, another hardware thread unit permitted to issue an instruction after the given hardware thread unit has issued an instruction, such that the instruction issuance sequence corresponds to the stored value. associating a register with each of the threads; storing a value in the register, the stored value updatable and identifying any desired next thread permitted to issue an instruction; and utilizing the stored value to control the instruction issuance sequence,
Layered structure, comprising a) a base layer of nanoparticles of crosslinked molecules of a linear polyglycerol derivative, wherein the linear polyglycerol derivative has at least one first terminal catechol group, b) a coating layer comprising a hyperbranched polyglycerol derivative having at least one second terminal catechol group, wherein the hyperbranched polyglycerol derivative is covalently bound via the second terminal catechol group to the nanoparticles of the base layer, and c) a ligand layer comprising a ligand covalently bound to the hyperbranched polyglycerol derivative of the coating layer, wherein the ligand is capable of non-covalently bonding an antibody. a) a base layer of nanoparticles of crosslinked molecules of a linear polyglycerol derivative, wherein the linear polyglycerol derivative has at least one first terminal catechol group, b) a coating layer comprising a hyperbranched polyglycerol derivative having at least one second terminal catechol group, wherein the hyperbranched polyglycerol derivative is covalently bound via the second terminal catechol group to the nanoparticles of the base layer, and c) a ligand layer comprising a ligand covalently bound to the hyperbranched polyglycerol derivative of the coating layer, wherein the ligand is capable of non-covalently bonding an antibody.
An ultra-high frequency partial discharge array sensor apparatus for a high-voltage power apparatus, comprising: a sensing unit which detects an electromagnetic wave partial discharge signal generated due to an internal defect of a high-voltage power apparatus and includes a plurality of sensors (120a, 120b, 120c, 120d) installed to detect information related to the position where the defect occurs; an anti-surge filter unit which prevents a surge input from the sensing unit; a signal delay time adjusting unit which equally adjusts delay times of signals input from the anti-surge filter unit; a signal switching unit which selectively transmits or blocks signals input from the signal delay time adjusting unit; a connector unit which connects a signal transmitted from the signal switching unit to the outside; and a sensor body which has a receiving space. a sensing unit which detects an electromagnetic wave partial discharge signal generated due to an internal defect of a high-voltage power apparatus and includes a plurality of sensors (120a, 120b, 120c, 120d) installed to detect information related to the position where the defect occurs; an anti-surge filter unit which prevents a surge input from the sensing unit; a signal delay time adjusting unit which equally adjusts delay times of signals input from the anti-surge filter unit; a signal switching unit which selectively transmits or blocks signals input from the signal delay time adjusting unit; a connector unit which connects a signal transmitted from the signal switching unit to the outside; and a sensor body which has a receiving space.