mhurhangee/ep-ind-claims huggingface dataset:
A method of communicating an indication of an allocation of radio resources on a radio channel for communicating data between a network infrastructure equipment and a terminal device (506, 508) in a wireless telecommunications system, wherein the radio channel spans a channel frequency bandwidth divided into frequency resource units which may be selectively allocated for communicating data between the network infrastructure equipment and the terminal device, and wherein the method comprises, at the network infrastructure equipment, selecting a combination of the resource units for communicating the data between the network infrastructure equipment and the terminal device from among a predefined set of allowable combinations of the resource units, wherein the set of the allowable combinations of the resource units is restricted to a number of allowable combinations of the resource units that is smaller than the total number of possible combinations of the resource units and which includes non-contiguous combinations of the resource units, establishing an indication of the selected combination of the resource units; and transmitting the indication of the selected combination of the resource units to the terminal device, wherein the radio channel is one of a plurality of narrowband channels supported within a wider system bandwidth of the wireless telecommunications system, and wherein the indication of the selected combination of the resource units includes an indication of which one of the plurality of narrowband channels contains the selected combination of the resource units, and characterized in that the radio channel is notionally divided into a plurality of sub-channels, each sub-channel spanning a plurality of the resource units, and wherein the indication of the selected combination of the resource units comprises an indication of which one or more of the sub-channels contains resource units in the selected combination of the resource units, and wherein the indication of the selected combination of the resource units comprises a first set of data bits indicating which one of the plurality of narrowband channels the allocation of radio resources applies to, a second set of data bits indicating which of the one or more sub-channels the allocation of radio resources applies to, and a third set of data bits indicating which of the resource units are allocated in the one or more sub-channels.
A process for extracting a perfluoropolyether from a lubricating grease, comprising: (a) contacting a solvent comprising a liquid or supercritical carbon dioxide with a lubricating grease comprising a thickener, and the perfluoropolyether in an extraction zone to form an extraction solution comprising an extracted perfluoropolyether; and (b) recovering the extracted perfluoropolyether from the extraction solution by evaporating the liquid or super critical carbon dioxide; characterized in that prior to the extraction an extraction aid material is added to the lubricating grease and wherein the extraction aid material comprises a material selected from the group consisting of diatomaceous earth, perlite, and cellulose materials. (a) contacting a solvent comprising a liquid or supercritical carbon dioxide with a lubricating grease comprising a thickener, and the perfluoropolyether in an extraction zone to form an extraction solution comprising an extracted perfluoropolyether; and (b) recovering the extracted perfluoropolyether from the extraction solution by evaporating the liquid or super critical carbon dioxide;
A small molecule compound combination for reprogramming digestive tract derived epithelial cells to endodermal stem/progenitor cells, wherein, the small molecule compound combination is a combination of 8 small molecule compounds: FBP, Bay K 8644 (Bay), Bix01294 (Bix), SB431542, VPA, RG108, PD0325901 and PS48, or FBP, Bay K 8644 (Bay), Bix01294 (Bix), A83-01, VPA, RG108, PD0325901 and PS48; or the small molecule compound combination is a combination of 4 small molecule compounds: Bix01294 (Bix), Bay K 8644 (Bay), RG108, and SB431542, referred to as BBRS combination, or Bix01294 (Bix), Bay K 8644 (Bay), RG108, and A83-01, referred to as BBRA combination.
Method for repairing a degraded zone of a sheath of a prestressed wire, the prestressed wire comprising at least one strand extending substantially along a longitudinal axis, the method comprising the following steps: - positioning, by means of winding them around the sheath, two end heating resistors on either side of the degraded zone to be repaired, respectively, - positioning, around the sheath and over the end heating resistors, a first sleeve portion made of polymer material and a second sleeve portion made of polymer material, the two sleeve portions together forming a cylindrical sleeve tube, said first portion or said second portion having a vent connector comprising a welded bushing, said first portion or said second portion having an injection connector comprising an additional welded bushing, - electrofusion-welding the end heating resistors to the two sleeve portions (1A, 1B) by applying an electric current to the terminals of the end heating resistors, - extrusion-welding the first sleeve portion to the second sleeve portion so as to form a cylindrical sleeve tube around the degraded zone to allow subsequent injection of a filling material via the injection connector inside the cylindrical sleeve tube formed, in the vicinity of the degraded zone of the prestressed wire, so as to repair the prestressed wire sheath. - positioning, by means of winding them around the sheath, two end heating resistors on either side of the degraded zone to be repaired, respectively, - positioning, around the sheath and over the end heating resistors, a first sleeve portion made of polymer material and a second sleeve portion made of polymer material, the two sleeve portions together forming a cylindrical sleeve tube, said first portion or said second portion having a vent connector comprising a welded bushing, said first portion or said second portion having an injection connector comprising an additional welded bushing, - electrofusion-welding the end heating resistors to the two sleeve portions (1A, 1B) by applying an electric current to the terminals of the end heating resistors, - extrusion-welding the first sleeve portion to the second sleeve portion so as to form a cylindrical sleeve tube around the degraded zone to allow subsequent injection of a filling material via the injection connector inside the cylindrical sleeve tube formed, in the vicinity of the degraded zone of the prestressed wire, so as to repair the prestressed wire sheath.
A containment enclosure for a fuel cell system, in particular for an underwater vehicle, comprising gas circulation means for bringing about the circulation of a stream of gas, notably for the ventilation of the said enclosure, between an injection opening situated in the lower part of the enclosure and an extraction opening situated in the upper part of the enclosure, characterized in that at least one of the openings (14,15) is associated with the controlled gas circulation means for bringing about the controlled circulation of the stream of gas across the entire section of the enclosure, and in that the enclosure comprises a bottom wall and a top wall associated with means forming a distributor tunnel and a collector tunnel for respectively distributing and collecting the stream of gas, the distributor tunnel and the collector tunnel each being delimited by a perforated plate (20, 21) placed at a distance away from the corresponding bottom wall or top wall of the enclosure, each perforated plate (20, 21) being provided with perforations arranged in the said plate (20, 21), in a manner such that the stream of injected gas and extracted gas varies depending on the distance in relation to the corresponding opening (14, 15), the perforations presenting a diameter that varies progressively as a function of the distance in relation to the corresponding opening (14, 15), the diameter of the perforations of the plate being progressively increasing when the distance in relation to the corresponding opening (14, 15) increases.
A data index management method in a storage system, wherein the method comprises: obtaining first to-be-written data, wherein a logical address range of the first to-be-written data is a first logical address range; and generating a data index based on an alignment status between a logical address range of a to-be-generated data index in the first logical address range and data index operation units with different lengths in the storage system, wherein the storage system comprises a data index operation unit with a first length and a data index operation unit with a second length, and the first length is greater than the second length, wherein a data index operation unit is a length in terms of bits of data indicated by the data index, wherein the generating a data index comprises: when the logical address range of the to-be-generated data index is aligned with the data index operation unit with the first length, generating a first data index for first data based on the data index operation unit with the first length, wherein the first data is data, in the first to-be-written data, that starts from the 1 st logical address in the logical address range of the to-be-generated data index and that is in a logical address range whose length is the first length, and the first data index comprises a location of the first data in the storage system. obtaining first to-be-written data, wherein a logical address range of the first to-be-written data is a first logical address range; and generating a data index based on an alignment status between a logical address range of a to-be-generated data index in the first logical address range and data index operation units with different lengths in the storage system, wherein the storage system comprises a data index operation unit with a first length and a data index operation unit with a second length, and the first length is greater than the second length, wherein a data index operation unit is a length in terms of bits of data indicated by the data index, wherein the generating a data index comprises: when the logical address range of the to-be-generated data index is aligned with the data index operation unit with the first length, generating a first data index for first data based on the data index operation unit with the first length, wherein the first data is data, in the first to-be-written data, that starts from the 1 st logical address in the logical address range of the to-be-generated data index and that is in a logical address range whose length is the first length, and the first data index comprises a location of the first data in the storage system.
A material for forming an organic film, comprising: a compound shown by the following general formula; and an organic solvent, wherein in the general formula, X represents an organic group with a valency of "n" having 2 to 50 carbon atoms or an oxygen atom, "n" represents an integer of 1 to 10, and R 1 independently represents any of the following general formulae, wherein in the general formulae, broken lines represent attachment points to X, and Q 1 represents a monovalent organic group containing a carbonyl group, at least a part of which is a group shown by the followinq general formulae, wherein in the general formulae, X 1 represents a single bond or a divalent organic group having 1 to 20 carbon atoms optionally having a substituent when the organic group has an aromatic ring, R 2 represents a hydrogen atom, a methyl group, an ethyl group, or a phenyl group, and **-represents an attachment point.
A charging circuit for an electronic device, comprising: a control module configured to generate a first control signal upon detecting that a power adaptor connected is an adaptor for direct charging with a relatively high voltage; a battery assembly; and a charge pump (102, 202, 401) configured to, upon receiving the first control signal, directly apply a charging voltage to the battery assembly for direct charging, wherein the charging voltage is applied to the electronic device by the power adaptor, the control module being further configured to generate a second control signal upon detecting that the power adaptor is an adaptor for direct charging with a relatively low voltage, wherein the adaptor for direct charging with the relatively low voltage has a maximum output voltage lower than the adaptor for direct charging with the relatively high voltage; and the charge pump (102, 202, 401) is further configured to perform, upon receiving the second control signal, boost conversion on the charging voltage and apply the charging voltage subjected to the boost conversion to the battery assembly for charging, wherein the charge pump (102, 202, 401) is configured to: switch on a number M of switch components (S1, S2,...) in the charge pump (102, 202, 401) upon receiving the first control signal, such that the charging voltage passes through the number M of switch components (S1, S2,...) to be applied to the battery assembly for direct charging, wherein M is an integer greater than or equal to one. a control module configured to generate a first control signal upon detecting that a power adaptor connected is an adaptor for direct charging with a relatively high voltage; a battery assembly; and a charge pump (102, 202, 401) configured to, upon receiving the first control signal, directly apply a charging voltage to the battery assembly for direct charging, wherein the charging voltage is applied to the electronic device by the power adaptor, the control module being further configured to generate a second control signal upon detecting that the power adaptor is an adaptor for direct charging with a relatively low voltage, wherein the adaptor for direct charging with the relatively low voltage has a maximum output voltage lower than the adaptor for direct charging with the relatively high voltage; and the charge pump (102, 202, 401) is further configured to perform, upon receiving the second control signal, boost conversion on the charging voltage and apply the charging voltage subjected to the boost conversion to the battery assembly for charging, wherein the charge pump (102, 202, 401) is configured to: switch on a number M of switch components (S1, S2,...) in the charge pump (102, 202, 401) upon receiving the first control signal, such that the charging voltage passes through the number M of switch components (S1, S2,...) to be applied to the battery assembly for direct charging, wherein M is an integer greater than or equal to one.
A method for obtaining oxide catalysts on the base of exfoliated layered aluminosilicates, wherein the metal cations are introduced into the structure aluminosilicates, is characterized in that at least one basic hydrophilic monomer is introduced into the interlayer space of layered aluminosilicate in the amount of 30% wt. to 90% wt. relative to the weight of aluminosilicate, or in that at least one basic hydrophilic monomer is introduced with the addition of a hydrophilic crosslinking monomer in the amount of up to 20 wt%. relative to the amount of remaining monomers and in situ polymerization is carried out in aqueous solution, then the resulting hybrid inorganic-organic layer material is submitted to sorption of at least one metal cation from the aqueous solution of its salt, followed by thermal treatment in the temperature in the range of 400-700°C, in an oxidizing atmosphere.
A system for correcting gait comprising: - at least one orientation sensor (11, 11b) and at least one stimulator and - a computing device receiving orientation sensor data, wherein the at least one stimulator is adapted for being activated by the computing device if the sensor data exceeds acceptable threshold levels, characterised in that the system is for correcting dog gait, whereby said orientation sensor and stimulator are adapted for attaching to a limb of the dog. - at least one orientation sensor (11, 11b) and at least one stimulator and - a computing device receiving orientation sensor data,
A genetically engineered carboxydotrophic acetogenic bacterium having decreased or eliminated activity of CODH1 and/or CODH2 compared to a parental bacterium.
A compound having a structure (L A) n ML m according to Formula 1: wherein M is a metal having an atomic weight greater than 40, n has a value of at least 1 and m+n is the maximum number of ligands that may be attached to the metal; wherein A is a linking group selected from wherein any one of the ring atoms to which R 1 b to R 1 g are attached may be replaced with a nitrogen atom, wherein when the ring atom is replaced with a nitrogen atom the corresponding R group is not present; and wherein L is a cyclometallated ligand; wherein R 1 a is selected from the group consisting of: H Me CD 3 i Pr Ph D R 1 a 1, R 1 a 2, R 1 a 3, R 1 a 4, R 1 a 5, and R 1 a 6; wherein R 1 b is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 b 1, R 1 b 2, R 1 b 3, R 1 b 4, and R 1 b 5; wherein R 1 c is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 c 1, R 1 c 2, R 1 c 3, R 1 c 4, and R 1 c 5; wherein R 1 d is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 d 1, R 1 d 2, R 1 d 3, R 1 d 4, and R 1 d 5; wherein R 1 e is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 e 1, R 1 e 2, R 1 e 3, R 1 e 4, and R 1 e 5; wherein R 1 f is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 f 1, R 1 f 2, R 1 f 3, R 1 f 4, and R 1 f 5; and wherein R 1 g = H. wherein M is a metal having an atomic weight greater than 40, n has a value of at least 1 and m+n is the maximum number of ligands that may be attached to the metal; wherein A is a linking group selected from wherein any one of the ring atoms to which R 1 b to R 1 g are attached may be replaced with a nitrogen atom, wherein when the ring atom is replaced with a nitrogen atom the corresponding R group is not present; and wherein L is a cyclometallated ligand; wherein R 1 a is selected from the group consisting of: H Me CD 3 i Pr Ph D R 1 a 1, R 1 a 2, R 1 a 3, R 1 a 4, R 1 a 5, and R 1 a 6; wherein R 1 b is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 b 1, R 1 b 2, R 1 b 3, R 1 b 4, and R 1 b 5; wherein R 1 c is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 c 1, R 1 c 2, R 1 c 3, R 1 c 4, and R 1 c 5; wherein R 1 d is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 d 1, R 1 d 2, R 1 d 3, R 1 d 4, and R 1 d 5; wherein R 1 e is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 e 1, R 1 e 2, R 1 e 3, R 1 e 4, and R 1 e 5; wherein R 1 f is selected from the group consisting of: H Me CD 3 i Pr Ph R 1 f 1, R 1 f 2, R 1 f 3, R 1 f 4, and R 1 f 5; and wherein R 1 g = H.
An electromagnetic wave measurement apparatus (101, 102), comprising: a probe light generation unit configured to generate probe light of two wavelengths; and an electro-optic probe (2, 2A, 2B) that includes an electro-optic crystal and is configured to receive the probe light generated by the probe light generation unit and a detection target electromagnetic wave; wherein the probe light generation unit is configured to generate two light rays of different frequencies as the probe light of two wavelengths; wherein the probe light generation unit is configured to perform a fluctuation operation to cause a frequency difference of the probe light to fluctuate; wherein the frequency difference of the probe light is the difference between the frequencies of the two light rays; wherein the content of the fluctuation operation is set so as to conform to specifications regarding frequency fluctuation of the detection target electromagnetic wave; and wherein, in the fluctuation operation, the probe light generation unit is configured to cause the frequency difference of the probe light to fluctuate such that a fluctuation range of a difference between the frequency difference of the probe light and a frequency of the detection target electromagnetic wave is smaller than a fluctuation range of the frequency of the detection target electromagnetic wave. a probe light generation unit configured to generate probe light of two wavelengths; and an electro-optic probe (2, 2A, 2B) that includes an electro-optic crystal and is configured to receive the probe light generated by the probe light generation unit and a detection target electromagnetic wave; wherein the probe light generation unit is configured to generate two light rays of different frequencies as the probe light of two wavelengths; wherein the probe light generation unit is configured to perform a fluctuation operation to cause a frequency difference of the probe light to fluctuate; wherein the frequency difference of the probe light is the difference between the frequencies of the two light rays; wherein the content of the fluctuation operation is set so as to conform to specifications regarding frequency fluctuation of the detection target electromagnetic wave; and wherein, in the fluctuation operation, the probe light generation unit is configured to cause the frequency difference of the probe light to fluctuate such that a fluctuation range of a difference between the frequency difference of the probe light and a frequency of the detection target electromagnetic wave is smaller than a fluctuation range of the frequency of the detection target electromagnetic wave.
A tablet comprising a compound of formula: or a pharmaceutically acceptable salt thereof, a lubricant, and one or more pharmaceutically acceptable additives, wherein compound or a pharmaceutically acceptable salt thereof is present in an amount within the range of from 65 to 90 % by weight of tablet, and wherein the lubricant is talc and sodium stearyl fumarate.
Corynebacterium glutamicum having improved ability to form a biofilm, wherein the Corynebacterium glutamicum comprises an inactivated gene with a nucleotide sequence represented by SEQ ID NO: 2; wherein the gene is inactivated by deletion of part of a nucleotide sequence represented by SEQ ID NO: 2, substitution of a part of a nucleotide sequence represented by SEQ ID NO: 2, or insertion of one or more base pairs into the nucleotide sequence represented by SEQ ID NO: 2, and wherein the ability to form a biofilm is improved compared to a parent strain comprising a gene with a nucleotide sequence represented by SEQ ID NO: 2, wherein L-lysine productivity of the Corynebacterium glutamicum is improved by enhancing one or more genes selected from the group consisting of lysA, lysC, lysE, dapA, dapB, pyc, asd and aspB, wherein said one or more genes are enhanced by increasing copy number of said one or more genes, and/or replacement or modification of the expression control sequence to increase expression of said one or more genes, and/or by mutation of the ORF of said one or more genes.