mhurhangee/ep-ind-claims huggingface dataset:
A note sequence analysis method comprising the steps of: calculating a similarity index (Z[n]) based on similarity between a designated sequence of notes designated by a user and a reference sequence of notes for each of a plurality of reference pieces of music, wherein said similarity index (Z[n]) is calculated for each of the plurality of reference pieces of music based on similarity between an entire length of the reference sequence of notes and an entire length of the designated sequence of notes, selecting a reference piece of music from among the plurality of reference pieces of music based on the similarity index (Z[n]) calculated for each of the plurality of reference pieces of music, and specifying an evaluation index of the designated sequence of notes based on the similarity index (Z[n]) calculated for the selected reference piece of music. calculating a similarity index (Z[n]) based on similarity between a designated sequence of notes designated by a user and a reference sequence of notes for each of a plurality of reference pieces of music, wherein said similarity index (Z[n]) is calculated for each of the plurality of reference pieces of music based on similarity between an entire length of the reference sequence of notes and an entire length of the designated sequence of notes, selecting a reference piece of music from among the plurality of reference pieces of music based on the similarity index (Z[n]) calculated for each of the plurality of reference pieces of music, and specifying an evaluation index of the designated sequence of notes based on the similarity index (Z[n]) calculated for the selected reference piece of music.
An acid addition salt of 4-(2,6-dichloro-benzoylamino)-1H-pyrazole-3-carboxylic acid piperidin-4-ylamide, the salt being formed with an acid selected from methanesulphonic acid and acetic acid and mixtures thereof.
A method performed by a User Equipment, UE, the method comprising: - receiving from a network node, via a higher layer, a configuration of one or more search space sets which are associated with one or more control resource sets, CORESETs, for one or more Physical Downlink Control Channels, PDCCHs, wherein each search space set is associated with a CORESET and comprises a number of PDCCH candidates and each PDCCH candidate comprises a number of resource elements or control channel elements, CCEs, and the UE monitoring for one or more Downlink Control Information, DCls, of a format or formats as indicated via a higher layer in the configured PDCCH candidates; wherein - a configuration or indication of an association of one or more of said search space sets with a search space set pool is provided to the UE; and wherein at least two PDCCH candidates from one or more search space sets in the search space set pool comprise or carry the same DCI content; and - applying the configuration or indication of the association for receiving one or more PDCCHs on the one or more search space sets. - receiving from a network node, via a higher layer, a configuration of one or more search space sets which are associated with one or more control resource sets, CORESETs, for one or more Physical Downlink Control Channels, PDCCHs, wherein each search space set is associated with a CORESET and comprises a number of PDCCH candidates and each PDCCH candidate comprises a number of resource elements or control channel elements, CCEs, and the UE monitoring for one or more Downlink Control Information, DCls, of a format or formats as indicated via a higher layer in the configured PDCCH candidates; wherein - a configuration or indication of an association of one or more of said search space sets with a search space set pool is provided to the UE; and wherein at least two PDCCH candidates from one or more search space sets in the search space set pool comprise or carry the same DCI content; and - applying the configuration or indication of the association for receiving one or more PDCCHs on the one or more search space sets.
Gas exchange valve of an internal combustion engine, comprising a valve disc and a valve stem, whereby at least some areas on at least the valve stem are provided with a galvanically applied nickel-phosphorus layer, characterised in that the applied nickel-phosphorus layer has a phosphorus moiety that is greater than 10 wt.%, in particular between 11 and 13 wt.%.
A process for the catalytic conversion of a saccharide-containing feedstock, in the presence of hydrogen and a catalyst system, to ethylene glycol and 1,2-propylene glycol in a reactor at a temperature in the range of from 150 to 250°C, wherein saccharide-containing feedstock is provided to the reactor as a feed stream through a feed pipe and is contacted with a catalyst system in the reactor and a reaction product is continuously removed from the reactor and wherein the saccharide-containing feedstock is provided through the feed pipe as a pulsed flow and is alternated with a second feed stream comprising a solvent being provided through the same feed pipe.
A mobile device for calibrating a magnetic sensor comprising: the magnetic sensor; a gyroscope configured to detect a posture of the mobile device independently of the magnetic sensor; a sampling data acquisition section configured to acquire output data from the magnetic sensor respectively for each of a plurality of orthogonal reference axes (X, Y, Z) as a plurality of sampling data items in a plurality of states in which the gyroscope detects that the mobile device is directed in directions different from one another, the plurality of sampling data items respectively corresponding to the plurality of states; an offset value calculation section configured to calculate a respective offset value for each reference axis of the magnetic sensor, which is estimated to be output by the magnetic sensor when there is no influence from geomagnetism, based on the acquired plurality of sampling data items; and a storage unit configured to store the respective offset values; wherein the offset value calculation section is further configured to calculate information on the amount of rotation, indicating how much the respective reference axis has rotated using the output of the gyroscope, while acquiring the plurality of sampling data items used for calculating the respective offset values; and wherein the offset value calculation section is further configured to estimate the reliability for each reference axis of a newly calculated offset value based on the information on the amount of rotation of each respective reference axis, and is further configured to update the respective offset value stored in the storage unit for each reference axis with the newly calculated offset value which is weighted in accordance with the estimated reliability. the magnetic sensor; a gyroscope configured to detect a posture of the mobile device independently of the magnetic sensor; a sampling data acquisition section configured to acquire output data from the magnetic sensor respectively for each of a plurality of orthogonal reference axes (X, Y, Z) as a plurality of sampling data items in a plurality of states in which the gyroscope detects that the mobile device is directed in directions different from one another, the plurality of sampling data items respectively corresponding to the plurality of states; an offset value calculation section configured to calculate a respective offset value for each reference axis of the magnetic sensor, which is estimated to be output by the magnetic sensor when there is no influence from geomagnetism, based on the acquired plurality of sampling data items; and a storage unit configured to store the respective offset values; wherein the offset value calculation section is further configured to calculate information on the amount of rotation, indicating how much the respective reference axis has rotated using the output of the gyroscope, while acquiring the plurality of sampling data items used for calculating the respective offset values;
A computer-implemented method of generating a plurality of interactive electronic documents by a computer system comprising a memory and a processing unit, the method comprising: loading into the memory, once and in a fixed fashion, a non-variable first part,the non-variable first part comprising instructions that, when executed, direct the processing unit to perform a function call in response to user interaction; loading into the memory, individually for each of the interactive electronic documents, from a data store arranged externally to the processing unit, a variable second part separate from the non-variable first part, the variable second part comprising variable data linked to a particular user and functions defined to return the variable data linked to the particular user in response to the function call, whereby the variable data linked to the particular user is stored directly in the variable second part and therefore accessible off-line or whereby the variable second part comprises access information for retrieving the variable data linked to the particular user from a remote database; and generating each of the plurality of interactive electronic documents as an object having the loaded non-variable first part and an individually loaded variable second part,thereby generating the plurality of interactive electronic documents as objects having the same non-variable first part. loading into the memory, once and in a fixed fashion, a non-variable first part,the non-variable first part comprising instructions that, when executed, direct the processing unit to perform a function call in response to user interaction; loading into the memory, individually for each of the interactive electronic documents, from a data store arranged externally to the processing unit, a variable second part separate from the non-variable first part, the variable second part comprising variable data linked to a particular user and functions defined to return the variable data linked to the particular user in response to the function call, whereby the variable data linked to the particular user is stored directly in the variable second part and therefore accessible off-line or whereby the variable second part comprises access information for retrieving the variable data linked to the particular user from a remote database; and generating each of the plurality of interactive electronic documents as an object having the loaded non-variable first part and an individually loaded variable second part,thereby generating the plurality of interactive electronic documents as objects having the same non-variable first part.
An apparatus configured for inspecting a light emitting diode package, the apparatus comprising: an inspection unit configured for inspecting an LED through a visual inspection to determine whether or not the LED is defective; and a defective product rejection unit configured for discarding the LED when the LED is determined to be defective on the basis of inspection results from the inspection unit among LEDs supplied from the inspection unit; the apparatus being characterized in that the defective product rejection unit comprises: a punching head, a plurality of punching pins installed on the punching head, a punching support supporting the LED at a lower side of the plurality of punching pins, wherein the plurality of punching pins are maintained to be selectively protruded over an LED determined to be defective when the punching head performs a punching operation, and wherein the punching support includes a plurality of discharge holes into which the punching pins lowered while being maintained in the protruded state are inserted to discharge the punched LED. an inspection unit configured for inspecting an LED through a visual inspection to determine whether or not the LED is defective; and a defective product rejection unit configured for discarding the LED when the LED is determined to be defective on the basis of inspection results from the inspection unit among LEDs supplied from the inspection unit; the apparatus being characterized in that the defective product rejection unit comprises: a punching head, a plurality of punching pins installed on the punching head, a punching support supporting the LED at a lower side of the plurality of punching pins, wherein the plurality of punching pins are maintained to be selectively protruded over an LED determined to be defective when the punching head performs a punching operation, and wherein the punching support includes a plurality of discharge holes into which the punching pins lowered while being maintained in the protruded state are inserted to discharge the punched LED. a punching head, a plurality of punching pins installed on the punching head, a punching support supporting the LED at a lower side of the plurality of punching pins, wherein the plurality of punching pins are maintained to be selectively protruded over an LED determined to be defective when the punching head performs a punching operation, and wherein the punching support includes a plurality of discharge holes into which the punching pins lowered while being maintained in the protruded state are inserted to discharge the punched LED.
A system (50, 120) for hip fixation, comprising: a support member defining an aperture (82, 138) and including an intramedullary nail or a plate member for a proximal femur; a fixation element having a reversibly deformable compliant region and configured to be received in the aperture of the support member such that the fixation element extends out of the support member from the aperture and into a head of the proximal femur and is slideable with respect to the support member parallel to a long axis defined by the fixation element; and a set of stiffening inserts (146a-c) each insertable at least partially into the fixation element to reduce a deformability of the compliant region differently from one another. a support member defining an aperture (82, 138) and including an intramedullary nail or a plate member for a proximal femur; a fixation element having a reversibly deformable compliant region and configured to be received in the aperture of the support member such that the fixation element extends out of the support member from the aperture and into a head of the proximal femur and is slideable with respect to the support member parallel to a long axis defined by the fixation element; and a set of stiffening inserts (146a-c) each insertable at least partially into the fixation element to reduce a deformability of the compliant region differently from one another.
A modular data center, comprising: a first cooling circuit including a primary cooling device (531, 535); a plurality of modular data pods, each modular data pod comprising: a plurality of servers; a heat exchange member coupled to the first cooling circuit; and a second cooling circuit coupled to the heat exchange member and configured to cool the plurality of servers, the second cooling circuit including a secondary cooling device (21, 22) configured to cool fluid flowing through the second cooling circuit, characterized in that the secondary cooling device (21, 22) is a mechanical cooling device configured to operate when the wet bulb temperature of the atmosphere associated with the modular data center exceeds a predetermined wet bulb temperature. a first cooling circuit including a primary cooling device (531, 535); a plurality of modular data pods, each modular data pod comprising: a plurality of servers; a heat exchange member coupled to the first cooling circuit; and a plurality of servers; a heat exchange member coupled to the first cooling circuit; and a second cooling circuit coupled to the heat exchange member and configured to cool the plurality of servers, the second cooling circuit including a secondary cooling device (21, 22) configured to cool fluid flowing through the second cooling circuit, characterized in that the secondary cooling device (21, 22) is a mechanical cooling device configured to operate when the wet bulb temperature of the atmosphere associated with the modular data center exceeds a predetermined wet bulb temperature.
A frequency conversion device, including a source of a pump beam of electromagnetic radiation of a first wavelength, and an array of mutually spaced semiconductor islands composed of at least one III-V semiconductor compound and configured so that the pump beam of electromagnetic radiation of the first wavelength incident upon the semiconductor islands and electromagnetic radiation of a second wavelength incident upon the semiconductor islands cause the semiconductor islands to emit electromagnetic radiation of a third wavelength different to the first and second wavelengths by at least one of a sum frequency generation process and a difference frequency generation process; wherein the semiconductor islands are supported by a transparent support such that the support is transparent to radiation of the third wavelength, wherein at least the radiation of the third wavelength passes through the transparent support.
A process for producing water-absorbing polymer particles by polymerizing a monomer solution or suspension comprising a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, wherein the monomer solution or suspension comprises at least one ethylenically unsaturated ionic surfactant, the ethylenically unsaturated ionic surfactant is a compound of the general formula where R 1 and R 2 are each independently methyl or ethyl and n is an integer from 3 to 20, and the polymer particles obtained are surface postcross-linked. a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers,
A receptacle assembly comprising a contact module including a holder having a first side and an opposite second side, the holder holding a frame assembly, the frame assembly including a plurality of contacts and a dielectric frame supporting the contacts, the contacts extending from the holder for electrical termination, a first ground shield coupled to the first side of the holder and a second ground shield coupled to the second side of the holder, the first ground shield having grounding beams extending forward of the holder for electrical connection to a corresponding header contact of a header assembly, and the second ground shield having grounding beams extending forward of the holder for electrical connection to a corresponding header contact of the header assembly, characterized in that: the first ground shield has ground skewers extending into the holder and the frame assembly, the second ground shield has ground skewers extending into the holder and the frame assembly, the ground skewers of the second ground shield being engaged with and electrically connected to corresponding ground skewers of the first ground shield the first ground shield includes a generally planar main body, the ground skewers of the first ground shield are stamped and bent out of the main body such that the ground skewers extend generally perpendicular to the main body. the first ground shield has ground skewers extending into the holder and the frame assembly, the second ground shield has ground skewers extending into the holder and the frame assembly, the ground skewers of the second ground shield being engaged with and electrically connected to corresponding ground skewers of the first ground shield the first ground shield includes a generally planar main body, the ground skewers of the first ground shield are stamped and bent out of the main body such that the ground skewers extend generally perpendicular to the main body.
A particulate nucleating agent comprising: a compound represented by the following General Formula, wherein in a case where dry measurement of particle diameter distribution of the particulate nucleating agent is performed by using a laser diffraction particle size distribution measurement method, a maximum particle diameter of the particulate nucleating agent is denoted by D max, and a degree of dispersion of the particulate nucleating agent measured according to the following procedure is denoted by D p, D max satisfies the following Expression and D p satisfies the following Expression, 80 μ m ≤ D max ≤ 300 μ m 1.0 % ≤ D p ≤ 27.0 % (Procedure) First, as a sample, 5 g of the particulate nucleating agent, a charging container having an inner diameter of 3 cm and having an openable/closable shutter at the bottom, and a cylinder having an inner diameter of 10 cm and a height of 50.5 cm, and a watch glass having a diameter of 10 cm are prepared. The sample is placed in the charging container, and the charging container is set such that the bottom has a height of 60 cm. The charging container is set on the cylinder, and the watch glass is set below the cylinder. A distance between the lower end of the cylinder and a surface of the watch glass is 9 cm. The sample is put into the cylinder by opening the shutter at the bottom of the charging container, and the sample is dropped in an up and down direction in the cylinder. Then, the amount of the sample remaining on the watch glass set at the drop point of the sample is measured. Using the amount of the input sample and the amount of the sample remaining on the watch glass, a degree of dispersion (%) is measured based on the following expression. Degree of dispersion % = input sample amount g − sample amount remaining on watch glass g / input sample amount g × 100 (in General Formula, R 1 to R 4 each independently represent a hydrogen atom, a straight chain or branched alkyl group having 1 to 9 carbon atoms, R 5 represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, m represents 1 or 2, in a case where m is 1, M 1 represents a hydrogen atom, Al 2, or an alkali metal atom, and in a case where m is 2, M 1 represents a Group II element, AI, or Zn.) a compound represented by the following General Formula, wherein in a case where dry measurement of particle diameter distribution of the particulate nucleating agent is performed by using a laser diffraction particle size distribution measurement method, a maximum particle diameter of the particulate nucleating agent is denoted by D max, and a degree of dispersion of the particulate nucleating agent measured according to the following procedure is denoted by D p, D max satisfies the following Expression and D p satisfies the following Expression, 80 μ m ≤ D max ≤ 300 μ m 1.0 % ≤ D p ≤ 27.0 %