mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a large object, characterized in that after a client or a server initiates a device management session, the method comprises: the server sending to the client a large object transmission command which carries large object transmission data, wherein a difference between the maximum number of message bytes, MAXMSGSIZE, supported by the client for the transmission of large objects and the number of bytes of the large object transmission data is greater than or equal to a preset value; and the server receiving an execution result of the large object transmission command returned by the client, and executing subsequent large object transmission operations based on the execution result. the server sending to the client a large object transmission command which carries large object transmission data, wherein a difference between the maximum number of message bytes, MAXMSGSIZE, supported by the client for the transmission of large objects and the number of bytes of the large object transmission data is greater than or equal to a preset value; and the server receiving an execution result of the large object transmission command returned by the client, and executing subsequent large object transmission operations based on the execution result.
A bucket assembly for a turbine system, comprising: a main body having an exterior surface and defining a main cooling circuit (82,84); a platform surrounding the main body and at least partially defining a platform cooling circuit, the platform comprising a forward portion and an aft portion each extending between a pressure side slash face and a suction side slash face and further comprising a forward face, an aft face, and a top face; and a plenum at least partially defined in the platform, the plenum in fluid communication with the main cooling circuit and extending from the main cooling circuit towards the suction side slash face, characterized in that the plenum tapers in a direction from the platform towards a root of the bucket assembly. a main body having an exterior surface and defining a main cooling circuit (82,84); a platform surrounding the main body and at least partially defining a platform cooling circuit, the platform comprising a forward portion and an aft portion each extending between a pressure side slash face and a suction side slash face and further comprising a forward face, an aft face, and a top face; and a plenum at least partially defined in the platform, the plenum in fluid communication with the main cooling circuit and extending from the main cooling circuit towards the suction side slash face, characterized in that the plenum tapers in a direction from the platform towards a root of the bucket assembly.
A method for PSCell change applicable to a LTE-5GC tight interworking scenario, wherein secondary nodes, SNs, in the LTE-5GC tight interworking scenario are split up between central units, CUs, and distribute units, DUs, characterized in that, the method comprises: receiving, by a central unit of gNodeB, gNB-CU, in a secondary node, SN, a Measurement Report message from a User Equipment; determining, by the gNB-CU, that whether a PSCell change can be performed for the UE according to a measurement result included in the Measurement Report message, and determining, by the gNB-CU, that the UE moves from a source distribute unit of gNodeB, gNB-DU, to a target gNB-DU according to the Measurement Report message when determining that the PSCell of the UE can be changed; and transmitting, by the SN, a message comprising a tunnel end point identifier, TEID, to a master node, MN, so that the MN and the UE exchange data via the target gNB-DU, wherein the TEID identifies a data link between the target gNB-DU and the MN receiving, by a central unit of gNodeB, gNB-CU, in a secondary node, SN, a Measurement Report message from a User Equipment; determining, by the gNB-CU, that whether a PSCell change can be performed for the UE according to a measurement result included in the Measurement Report message, and determining, by the gNB-CU, that the UE moves from a source distribute unit of gNodeB, gNB-DU, to a target gNB-DU according to the Measurement Report message when determining that the PSCell of the UE can be changed; and transmitting, by the SN, a message comprising a tunnel end point identifier, TEID, to a master node, MN, so that the MN and the UE exchange data via the target gNB-DU, wherein the TEID identifies a data link between the target gNB-DU and the MN
- A flushing system for a toilet bowl (2; 102), the flushing system comprising a supply box (3; 103) being formed as a one-piece body (10; 110) with a water inlet (11; 111) and a water outlet (12; 112) connected to each other by a channel, the water inlet (11; 111) having a circular section adapted to receive a lip seal and a flush pipe, the water outlet (12; 112) being adapted to be disposed opposite a flushing water inlet (6; 106) of a toilet bowl (2; 102), the circular section of the water inlet channel flattening progressively to take on an oblong or elliptical shape (13; 113), the cross-section of which is constant up to the water outlet (12; 112) of oblong or elliptical section, the one-piece body (10; 110) further comprising a fastening front panel (14; 114) arranged at the periphery of the water outlet (12; 112), said fastening front panel (14; 114) being curved so as to be able to match the external shape of the bowl of the toilet bowl (2; 102) at its flushing water inlet (6; 106) and said fastening front panel (14; 114) comprising means for securing said supply box (3; 103) to the bowl of the toilet bowl (2; 102), a housing (16; 116) being further provided in the fastening front panel (14; 114), said housing (16; 116) being configured to house a seal (15; 115).
Housing for an extractor hood having at least two external surfaces (3, 4), which are arranged at an angle relative to one another and abut one another in the region of an edge of the housing, wherein a corner element formed by a separate component is provided, said corner element being arranged in the region of the edge between the two external surfaces (3, 4) and wherein the corner element has a joining section on its rear end facing the housing, with which the corner element is inserted into the housing and is anchored in the housing, characterised in that the corner element has at least one control element for actuating at least one function of the extractor hood and that electrical contacts are disposed in the region of the joining section, with which the control element can be connected to a controller of the extractor hood.
Transport assembly for wood fibre boards (10.1, 10.2, 10.3) with at least one first transporting device for the horizontal transportation of wood fibre boards (10.1, 10.2, 10.3) that are partly lying on top of each other along a transporting route S at a first transporting height, and a stacking position for wood fibre boards (10.1, 10.2, 10.3) in a transporting direction behind the first transporting device wherein at least one second transporting device is provided, characterised in that the second transporting device is suitable for transporting wood fibre boards (10.1, 10.2, 10.3) at a second transporting height within the transporting route, and in that the second transporting device comprises carrier elements which can be activated on a portion of the transporting route in such a way that a wood fibre board located in the transporting route is lifted to a higher transporting level in that the carrier elements have been positioned under the wood fibre board by way of the second transporting device moving forwards. at least one second transporting device is provided, characterised in that the second transporting device is suitable for transporting wood fibre boards (10.1, 10.2, 10.3) at a second transporting height within the transporting route, and in that the second transporting device comprises carrier elements which can be activated on a portion of the transporting route in such a way that a wood fibre board located in the transporting route is lifted to a higher transporting level in that the carrier elements have been positioned under the wood fibre board by way of the second transporting device moving forwards.
A method for producing a sealed optical semiconductor device, comprising: a step in which at least two types of sealing films including an inner layer sealing film and an outermost layer sealing film are placed in this order on an optical semiconductor element mounting substrate on which an optical semiconductor element is mounted within a pressure reduction chamber and the pressure in the pressure reduction chamber is reduced; a step in which the outermost layer sealing film is heated and at least the periphery of the outermost layer sealing film is thermally fused to the surface of the optical semiconductor element mounting substrate; and a step in which the reduction of pressure within the pressure reduction chamber is released and the optical semiconductor element mounting substrate is sealed by the outermost layer sealing film and the inner layer sealing film, said method characterized in that the temperature T2 of the optical semiconductor element mounting substrate when the reduction of pressure within the pressure reduction chamber is released is a temperature at which the outermost layer sealing film exhibits a tensile strength of 0.02-0.15 MPa and an elongation at break of 200-450%, and the inner layer sealing film exhibits a loss tangent (tan δ) of 1.6 or more at the temperature T2. a step in which the outermost layer sealing film is heated and at least the periphery of the outermost layer sealing film is thermally fused to the surface of the optical semiconductor element mounting substrate; and a step in which the reduction of pressure within the pressure reduction chamber is released and the optical semiconductor element mounting substrate is sealed by the outermost layer sealing film and the inner layer sealing film, said method characterized in that the temperature T2 of the optical semiconductor element mounting substrate when the reduction of pressure within the pressure reduction chamber is released is a temperature at which the outermost layer sealing film exhibits a tensile strength of 0.02-0.15 MPa and an elongation at break of 200-450%, and the inner layer sealing film exhibits a loss tangent (tan δ) of 1.6 or more at the temperature T2.
A method for providing electrical power from a subscriber terminal (134, 702, 1010) to an optical element (110, 404, 500, 700, 1000, 1200) for use in a wide area network, the method comprising: at the subscriber terminal: providing by the subscriber terminal a low level detection current across at least one electrical wire pair or cable for detection of a predetermined load across the at least one electrical wire pair or cable, and wherein the at least one electrical wire pair or cable is disposed to be coupled between the subscriber terminal and the optical network element, and wherein the predetermined load indicates coupling of the optical network element onto the at least one electrical wire pair or cable; providing by the subscriber terminal an electrical power having additional current and/or voltage than the low level detection current onto the at least one electrical wire pair or cable responsive to detecting the predetermined load using the low level detection current; and receiving at the subscriber terminal a downstream data communication signal from the optical network element on the at least one electrical wire pair or cable. providing by the subscriber terminal a low level detection current across at least one electrical wire pair or cable for detection of a predetermined load across the at least one electrical wire pair or cable, and wherein the at least one electrical wire pair or cable is disposed to be coupled between the subscriber terminal and the optical network element, and wherein the predetermined load indicates coupling of the optical network element onto the at least one electrical wire pair or cable; providing by the subscriber terminal an electrical power having additional current and/or voltage than the low level detection current onto the at least one electrical wire pair or cable responsive to detecting the predetermined load using the low level detection current; and receiving at the subscriber terminal a downstream data communication signal from the optical network element on the at least one electrical wire pair or cable.
A glass atomizer, comprising a member for e-liquid injection and vapor discharge, wherein the member for e-liquid injection and vapor discharge comprises an outer glass tube and an inner glass tube disposed in the outer glass tube; the inner glass tube comprises a top end; characterised in that an outer edge of the top end comprises a plurality of grooves; and the top end is integrated with an inner wall of the outer glass tube.
A speaker installation structure for a vehicle, comprising: a speaker unit including a speaker housing for holding a speaker body, said speaker housing having a plurality of claws formed thereon; and a panel member having an opening and a plurality of slits made therein, said plurality of claws being inserted into said plurality of slits, respectively, and said speaker unit being mounted on said panel member by rotating said speaker housing in its circumferential direction, characterized in that said opening has a diameter smaller than a diameter of said speaker housing and has at least three linear portions, and each of said plurality of slits is made outside said three linear portions and inside an outer circumference of said speaker housing. a speaker unit including a speaker housing for holding a speaker body, said speaker housing having a plurality of claws formed thereon; and a panel member having an opening and a plurality of slits made therein, said plurality of claws being inserted into said plurality of slits, respectively, and said speaker unit being mounted on said panel member by rotating said speaker housing in its circumferential direction, characterized in that said opening has a diameter smaller than a diameter of said speaker housing and has at least three linear portions, and each of said plurality of slits is made outside said three linear portions and inside an outer circumference of said speaker housing.
A process for producing a hydroxyalkyl cellulose by adding a basic compound and an alkyleneoxide to a cellulose to conduct a reaction therebetween in which the basic compound is added in a total amount of not less than 0.7 mol and not more than 1.5 mol per 1 mol of an anhydroglucose unit in the cellulose, and the alkyleneoxide is added in a total amount of not less than 1.0 mol and not more than 3.0 mol per 1 mol of an anhydroglucose unit in the cellulose, said process comprising the following steps 1 and 2: Step 1: adding the basic compound in an amount of not less than 50% and not more than 95% of the total amount of the basic compound to be added during the process, and then adding the alkyleneoxide in an amount of not less than 30% and not more than 80% of the total amount of the alkyleneoxide to be added during the process to react the compounds with the cellulose, thereby obtaining a reaction mixture; and Step 2: adding a remaining amount of the basic compound not added in the step 1 and a remaining amount of the alkyleneoxide not added in the step 1 to the reaction mixture obtained in the step 1 to conduct a reaction therebetween. Step 1: adding the basic compound in an amount of not less than 50% and not more than 95% of the total amount of the basic compound to be added during the process, and then adding the alkyleneoxide in an amount of not less than 30% and not more than 80% of the total amount of the alkyleneoxide to be added during the process to react the compounds with the cellulose, thereby obtaining a reaction mixture; and Step 2: adding a remaining amount of the basic compound not added in the step 1 and a remaining amount of the alkyleneoxide not added in the step 1 to the reaction mixture obtained in the step 1 to conduct a reaction therebetween.
A separation process comprising: substantially continuously contacting an ion exchange resin which is ion exchanged with silver ions with a feed stream comprising E and Z isomers of at least one alkene alcohol selected from the group consisting of E and/or Z isomers of 2-butenols, 2- pentenols, 2-hexenols, 3-hexenols, 2-heptenols, 3-heptenols, ester, ether, and acetal derivatives thereof and mixtures thereof, and, optionally, one or more contaminants or impurities, wherein the ion exchange resin is a macroporous styrene-divinylbenzene copolymer having sulfonic acid or sulfonic acid salt groups; removing at least one product stream having a higher isomeric purity of the E or Z isomer of at least one alkene alcohol or ester, ether, and acetal derivative of the alkene alcohol, relative to the isomeric purity of the E or Z isomer of the alkene alcohol or derivative of the alkene alcohol in the feed stream. substantially continuously contacting an ion exchange resin which is ion exchanged with silver ions with a feed stream comprising E and Z isomers of at least one alkene alcohol selected from the group consisting of E and/or Z isomers of 2-butenols, 2- pentenols, 2-hexenols, 3-hexenols, 2-heptenols, 3-heptenols, ester, ether, and acetal derivatives thereof and mixtures thereof, and, optionally, one or more contaminants or impurities, wherein the ion exchange resin is a macroporous styrene-divinylbenzene copolymer having sulfonic acid or sulfonic acid salt groups; removing at least one product stream having a higher isomeric purity of the E or Z isomer of at least one alkene alcohol or ester, ether, and acetal derivative of the alkene alcohol, relative to the isomeric purity of the E or Z isomer of the alkene alcohol or derivative of the alkene alcohol in the feed stream.
A method of determining base information of a predetermined region in a fetal genome, comprising the following steps: extracting a genomic DNA sample of a fetus from pregnant peripheral blood, constructing a sequencing library based on the genomic DNA sample of the fetus; subjecting the sequencing library to sequencing, to obtain a sequencing result of the fetus consisting of a plurality of sequencing data; and determining the base information of the predetermined region based on the sequencing result of the fetus combining with genetic information of a related individual using a hidden Markov Model, wherein the base information of the predetermined region comprises the most possible fetal haplotype recombination, and the base information of the predetermined region is obtained by: constructing a probability distribution vector of an initial state and a transition matrix of haplotypes recombination; constructing a probability matrix of observations; constructing a partial probability matrix, and a reversal cursor; determining a final state, and tracing back an optional path; and outputting a result to analyze the DNA sequence of the fetal genome. extracting a genomic DNA sample of a fetus from pregnant peripheral blood, constructing a sequencing library based on the genomic DNA sample of the fetus; subjecting the sequencing library to sequencing, to obtain a sequencing result of the fetus consisting of a plurality of sequencing data; and determining the base information of the predetermined region based on the sequencing result of the fetus combining with genetic information of a related individual using a hidden Markov Model, wherein the base information of the predetermined region comprises the most possible fetal haplotype recombination, and the base information of the predetermined region is obtained by: constructing a probability distribution vector of an initial state and a transition matrix of haplotypes recombination; constructing a probability matrix of observations; constructing a partial probability matrix, and a reversal cursor; determining a final state, and tracing back an optional path; and outputting a result to analyze the DNA sequence of the fetal genome. constructing a probability distribution vector of an initial state and a transition matrix of haplotypes recombination; constructing a probability matrix of observations; constructing a partial probability matrix, and a reversal cursor; determining a final state, and tracing back an optional path; and outputting a result to analyze the DNA sequence of the fetal genome.
A strip shaped tool (1, 2, 3, 4) belonging to that type of tools which comprises flat, strip shaped doctor blades and coater blades, which have a body of steel of a type belonging to the group of hardenable steels, which consists of carbon steels, low-alloyed steels, alloyed but not stainless steels, and stainless, martensitic chromium steels, said body having two flats sides, which are covered by a hard surface layer (6a, 6b) which contains on one hand one or more of the elements nitrogen, oxygen, and carbon, and on the other hand one or more of with said elements reactive metals, and at least one end portion, which is the working part of the tool during use thereof, said one or more of the elements nitrogen, oxygen and carbon, and said one or more reactive metals, which comprise one or more of the metals titanium, tungsten, chromium, molybdenum, boron, vanadium, aluminum, and zirconium, exist in said surface layers as hardness promoting reaction products comprising particles of at least any of those compounds which belong to that group of compounds which consist of titanium nitride (TiN) and aluminum nitride (AlN), vanadium carbide, tungsten carbide and chromium carbide (Cr 3 C 2), and zirconium oxide (ZrO 2), aluminum oxide (Al 2 O 3) and chromium oxide (Cr 2 O 3), characterized in that that said hard surface layers (6a', 6b') cover a second, underlying layer (7a,7b) which contains nitrides precipitated in said second layer, increasing the hardness in at least a zone of said second layer to a hardness which is 100 - 1500 HV (Hardness Vickers) larger than the hardness in the steel material under said second layer, and that said second, underlying layer (7a, 7b) has a thickness of at least 0,1 μm (100 nm) but not more than 10 μm (0,010 mm), that said second, underlying layers and said hard surface layers have microstructures of the types which are obtainable through Plasma Immersion Ion Implantation of nitrogen into the steel material, and subsequently, Plasma Immersion Ion Implantation of one or more of the reactive metals titanium, tungsten, chromium, molybdenum, boron, vanadium, aluminum, and zirconium together with one or more of the elements nitrogen, oxygen and carbon, into the steel, that the body consists of a cold-rolled strip of steel which is hardened and tempered to a hardness between 500 and 700 HV (Hardness Vickers) in its hardened and tempered condition, and that the body has a thickness between 0.07 and 0.6 mm.
Medium for culturing unicellular algae from a strain of Chlorella sorokiniana, comprising between 120 and 190 mg/l calcium and between 4 and 6 g/l glucose.