mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a red phosphor that is a manganese-activated complex fluoride represented by the formula : A 2 MF 6 :Mn wherein M is one or more tetravalent elements selected from silicon, titanium, zirconium, hafnium, germanium and tin, and A is one or more alkali metals selected from lithium, sodium, potassium, rubidium and cesium, and includes at least sodium and/or potassium, the method comprising the steps of: mixing, as reaction raw materials, (i) a solid complex fluoride represented by the formula : A 2 MF 6 wherein M is one or more tetravalent elements selected from silicon, titanium, zirconium, hafnium, germanium and tin, and A is one or more alkali metals selected from lithium, sodium, potassium, rubidium and cesium, and includes at least sodium and/or potassium, (ii) a solid manganese compound represented by the formula : A 2 MnF 6 wherein A is one or more alkali metals selected from lithium, sodium, potassium, rubidium and cesium, and includes at least sodium and/or potassium, and (iii) a solid hydrogenfluoride represented by the formula : A 1 F·nHF wherein A 1 is one or more alkali metals or ammonium selected from sodium, potassium, rubidium and NH 4 , and n is a number that is at least 0.7 and not more than 4, and heating the mixture at a temperature of at least 100°C and not above 500°C. (i) a solid complex fluoride represented by the formula : A 2 MF 6 wherein M is one or more tetravalent elements selected from silicon, titanium, zirconium, hafnium, germanium and tin, and A is one or more alkali metals selected from lithium, sodium, potassium, rubidium and cesium, and includes at least sodium and/or potassium, (ii) a solid manganese compound represented by the formula : A 2 MnF 6 wherein A is one or more alkali metals selected from lithium, sodium, potassium, rubidium and cesium, and includes at least sodium and/or potassium, and (iii) a solid hydrogenfluoride represented by the formula : A 1 F·nHF wherein A 1 is one or more alkali metals or ammonium selected from sodium, potassium, rubidium and NH 4 , and n is a number that is at least 0.7 and not more than 4, and heating the mixture at a temperature of at least 100°C and not above 500°C.
An article comprising - a base material of zirconium oxide, - on the base material, an intermediate layer comprising one or more metal oxides, the intermediate layer being a single layer comprising one or more metal oxides or being composed of a plurality of layers each being composed of one or more metal oxides, and - on the intermediate layer, a surface treating layer formed from a surface treating agent comprising a fluorine-containing silane compound; wherein the total thickness of the intermediate layer is 10 nm or more to less than 50 nm. - a base material of zirconium oxide, - on the base material, an intermediate layer comprising one or more metal oxides, the intermediate layer being a single layer comprising one or more metal oxides or being composed of a plurality of layers each being composed of one or more metal oxides, and - on the intermediate layer, a surface treating layer formed from a surface treating agent comprising a fluorine-containing silane compound;
Method for postural independent location of targets in diagnostic images acquired by multimodal acquisitions comprising the steps of: generating a transition of a digital image of the inside of a target region, from a first to a second position of the said target region, by correlating the position of markers, placed on the external surface of the target region, in the digital image of the inside of the target region and in a digital representation of the surface of the target region acquired with the target region in the said first position by optical scanning the said surface, on which the markers are present; And in a later time registering the said diagnostic image of the inside of the target region which has been transitioned into the second position with a diagnostic image of the same target region acquired with the target region in the said second position by matching a second representation of the external surface of the target body in the said second position without markers with the said diagnostic image of the inside of the target region which has been transitioned into the second position. generating a transition of a digital image of the inside of a target region, from a first to a second position of the said target region, by correlating the position of markers, placed on the external surface of the target region, in the digital image of the inside of the target region and in a digital representation of the surface of the target region acquired with the target region in the said first position by optical scanning the said surface, on which the markers are present; And in a later time registering the said diagnostic image of the inside of the target region which has been transitioned into the second position with a diagnostic image of the same target region acquired with the target region in the said second position by matching a second representation of the external surface of the target body in the said second position without markers with the said diagnostic image of the inside of the target region which has been transitioned into the second position.
An apparatus comprising: at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to: prior to a radio link failure between a serving cell and a terminal , proactively provide , to the terminal , an indication indicating at least one resource to perform at least one random access procedure with a neighbouring cell; and prior to a radio link failure between the serving cell and the terminal, provide , to the terminal , an indication indicating whether there are other terminals configured with the same at least one resource to perform the at least one random access procedure, wherein the at least one resource to perform the at least one random access procedure comprises a dedicated resource or a shared resource. at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to: prior to a radio link failure between a serving cell and a terminal , proactively provide , to the terminal , an indication indicating at least one resource to perform at least one random access procedure with a neighbouring cell; and prior to a radio link failure between the serving cell and the terminal, provide , to the terminal , an indication indicating whether there are other terminals configured with the same at least one resource to perform the at least one random access procedure, wherein the at least one resource to perform the at least one random access procedure comprises a dedicated resource or a shared resource. prior to a radio link failure between a serving cell and a terminal , proactively provide , to the terminal , an indication indicating at least one resource to perform at least one random access procedure with a neighbouring cell; and prior to a radio link failure between the serving cell and the terminal, provide , to the terminal , an indication indicating whether there are other terminals configured with the same at least one resource to perform the at least one random access procedure, wherein the at least one resource to perform the at least one random access procedure comprises a dedicated resource or a shared resource.
An operation information obtaining device attached to a sewing machine , comprising: a detection device , for measuring detection information of a sewing needle of the sewing machine ; the operation information obtaining device being characterized by further comprising: a storage portion , for storing pattern information associating detection information and a sewing pattern of the sewing machine , wherein the detection information represents pulse trains indicative of needle movement, used for identifying the sewing pattern that corresponds to the detection information; an estimation portion , for estimating that a sewing pattern represented by the pattern information is the sewing pattern sewn by the sewing machine when a consistency of a comparison of the pulse train represented by the measured detection information with the pulse train represented by the stored detection information in the storage portion is higher than a determination threshold; and an obtaining portion , for obtaining operation information of the sewing machine sewing the estimated sewing pattern. a storage portion , for storing pattern information associating detection information and a sewing pattern of the sewing machine , wherein the detection information represents pulse trains indicative of needle movement, used for identifying the sewing pattern that corresponds to the detection information; an estimation portion , for estimating that a sewing pattern represented by the pattern information is the sewing pattern sewn by the sewing machine when a consistency of a comparison of the pulse train represented by the measured detection information with the pulse train represented by the stored detection information in the storage portion is higher than a determination threshold; and an obtaining portion , for obtaining operation information of the sewing machine sewing the estimated sewing pattern.
A use of an apparatus for preparing polybutene, said apparatus comprising: a complex catalyst preparation device for preparing a high-activity complex catalyst and low-activity complex catalyst to form highly reactive polybutene through polymerization; a high-molar ratio complex catalyst system for controlling storage and supply of the high-activity complex catalyst; a low-molar ratio complex catalyst system for controlling storage and supply of the low-activity complex catalyst; and a reactor to which the highly active complex catalyst, the low-activity complex catalyst, and a reaction raw material comprising isobutene are supplied to polymerize isobutene into a highly reactive polybutene, wherein the high-activity complex catalyst and the low-activity complex catalyst are mixed in a ratio according to the molecular weight of the highly reactive polybutene, prior to supplying the high activity complex catalyst and the low-activity complex catalyst to the reactor; wherein the molar ratio of cocatalyst/main catalyst of the high-activity complex catalyst is greater than or equal to 1 and less than 1.5, preferably in the range of 1.1 to 1.4, and the molar ratio of cocatalyst/main catalyst of the low-activity complex catalyst is in the range of 1.5 to 3, preferably 1.6 to 2.5. a complex catalyst preparation device for preparing a high-activity complex catalyst and low-activity complex catalyst to form highly reactive polybutene through polymerization; a high-molar ratio complex catalyst system for controlling storage and supply of the high-activity complex catalyst; a low-molar ratio complex catalyst system for controlling storage and supply of the low-activity complex catalyst; and a reactor to which the highly active complex catalyst, the low-activity complex catalyst, and a reaction raw material comprising isobutene are supplied to polymerize isobutene into a highly reactive polybutene, wherein the high-activity complex catalyst and the low-activity complex catalyst are mixed in a ratio according to the molecular weight of the highly reactive polybutene, prior to supplying the high activity complex catalyst and the low-activity complex catalyst to the reactor; wherein the molar ratio of cocatalyst/main catalyst of the high-activity complex catalyst is greater than or equal to 1 and less than 1.5, preferably in the range of 1.1 to 1.4, and the molar ratio of cocatalyst/main catalyst of the low-activity complex catalyst is in the range of 1.5 to 3, preferably 1.6 to 2.5.
A method of batch processing implemented using a pre-classification mechanism (222; 322; 422; 522; 722; 1170) of a network interface controller (202; 302; 402; 502; 702) of a server (200; 300; 400; 500; 700; 1100), comprising: receiving , by the pre-classification mechanism of the network interface controller, rules for populating a first receive queue (220; 320; 420; 520) and a second receive queue (220; 320; 420; 520) of the server (200; 300; 400; 500; 700; 1100); receiving , by the pre-classification mechanism, packets (216; 316; 416; 516) corresponding to a first protocol intermingled with packets (216; 316; 416; 516) corresponding to a second protocol; and populating , by the pre-classification mechanism of the network interface controller, the first receive queue exclusively with the packets corresponding to the first protocol and the second receive queue exclusively with the packets corresponding to the second protocol based on the rules such that a central processing unit (204; 304; 404; 504; 1130) of the server (200; 300; 400; 500; 700; 1100) is able to obtain a first batch of the packets from the first receive queue and process each of the packets from the first batch using a same node graph path , wherein the same node graph path is a series of nodes determined by the first protocol. receiving , by the pre-classification mechanism of the network interface controller, rules for populating a first receive queue (220; 320; 420; 520) and a second receive queue (220; 320; 420; 520) of the server (200; 300; 400; 500; 700; 1100); receiving , by the pre-classification mechanism, packets (216; 316; 416; 516) corresponding to a first protocol intermingled with packets (216; 316; 416; 516) corresponding to a second protocol; and populating , by the pre-classification mechanism of the network interface controller, the first receive queue exclusively with the packets corresponding to the first protocol and the second receive queue exclusively with the packets corresponding to the second protocol based on the rules such that a central processing unit (204; 304; 404; 504; 1130) of the server (200; 300; 400; 500; 700; 1100) is able to obtain a first batch of the packets from the first receive queue and process each of the packets from the first batch using a same node graph path , wherein the same node graph path is a series of nodes determined by the first protocol.
A method of fabricating a reinforced thermoplastic composite part, the method comprising: moving a laminate of reinforcing fibers embedded in a thermoplastic matrix for sequential operations through a heating station and then a forming station ; and using the heating station to soften the thermoplastic matrix in a portion of the laminate while using the forming station to impart a geometry to a portion of the laminate whose thermoplastic matrix had just been softened; wherein the softening and the forming are performed simultaneously on different portions of the laminate ; and wherein the forming includes using multi-stage tooling to impart different geometries to the laminate ; and the forming is performed as a multi-shot stamping operation. moving a laminate of reinforcing fibers embedded in a thermoplastic matrix for sequential operations through a heating station and then a forming station ; and using the heating station to soften the thermoplastic matrix in a portion of the laminate while using the forming station to impart a geometry to a portion of the laminate whose thermoplastic matrix had just been softened; wherein the softening and the forming are performed simultaneously on different portions of the laminate ; and wherein the forming includes using multi-stage tooling to impart different geometries to the laminate ; and the forming is performed as a multi-shot stamping operation.
A radiating cable comprising coaxially, from the inside of the cable toward the outside of the cable, a central conductor , an intermediate electrically insulating enclosure , and an outer conductor including at least one opening , characterized in that each opening is delimited by two borders that are not parallel to the outer conductor , each border forming a curve form along the cable .
A polyethylene blend comprising a uniform dispersion of constituents (A) and (B): (A) a Ziegler-Natta catalyst-made linear low density polyethylene (ZN-LLDPE) and (B) a metallocene catalyst-made linear low density polyethylene (MCN-LLDPE); wherein the (A) ZN-LLDPE is from 15 to 75 weight percent (wt%) of the total weight of (A) and (B) and the (B) MCN-LLDPE is from 85 to 25 wt% of the total weight of (A) and (B); wherein by itself (A) is independently characterized by properties (i) to (ii): (i) a density from 0.905 to 0.930 gram per cubic centimeter (g/cm 3 ), measured according to ASTM D792-13; and (ii) no detectable amount of long chain branching per 1,000 carbon atoms ("LCB Index"), measured according to LCB Test Method; and wherein by itself (B) is independently characterized by properties (i) to (ii): (i) a density from 0.905 to 0.930 g/cm 3 , measured according to ASTM D792-13; and (ii) no detectable amount of long chain branching per 1,000 carbon atoms ("LCB Index"), measured according to LCB Test Method; with the proviso that the density of constituent (B) is within ± 0.003 g/cm 3 of the density of constituent (A); and wherein the (A) ZN-LLDPE has 1-hexene comonomeric units and a melt index value of 1.0 ± 0.1 g/10 min ("I 2 ", 190° C., 2.16 kg) measured according to ASTM D1238-04 and the (B) MCN-LLDPE has a melt index value of 1.0 ± 0.1 g/10 min ("I 2 ", 190° C., 2.16 kg) measured according to ASTM D1238-04.
A flywheel assembly for storing and releasing energy comprising: a hollow substantially cylindrical rotor assembly comprising a rotor having an inner and outer surface and said rotor comprising a material having a tensile strength of from about 2 GPa to about 20 GPa, said rotor material capable of expanding outward radially upon circumferential velocities of from about 300 m/s to about 3000 m/s; a stator assembly in close proximity with the rotor assembly; at least one flexible rotor magnet affixed to the inner surface of the rotor ; at least one stator magnet affixed to the stator, said stator magnets having an attractive force value at rest and dimensioned to a predetermined width to substantially maintain the attractive force value with the rotor when the rotor is operating at circumferential velocities of from about 300 m/s to about 3000 m/s; and a high temperature superconducting bearing ; wherein the rotor magnet and stator magnet are positioned relative to one another to facilitate levitation of the rotor during operation; and wherein the assembly comprises an open-core hubless flywheel architecture. a hollow substantially cylindrical rotor assembly comprising a rotor having an inner and outer surface and said rotor comprising a material having a tensile strength of from about 2 GPa to about 20 GPa, said rotor material capable of expanding outward radially upon circumferential velocities of from about 300 m/s to about 3000 m/s; a stator assembly in close proximity with the rotor assembly; at least one flexible rotor magnet affixed to the inner surface of the rotor ; at least one stator magnet affixed to the stator, said stator magnets having an attractive force value at rest and dimensioned to a predetermined width to substantially maintain the attractive force value with the rotor when the rotor is operating at circumferential velocities of from about 300 m/s to about 3000 m/s; and a high temperature superconducting bearing ;
A method comprising: obtaining , by a mobility element of a network, an attach request from a first user equipment, UE, wherein the attach request indicates an attach type associated with a network location service; communicating , based on the attach type being associated with the network location service, an attach accept to the first UE to trigger a location request for the first UE, wherein the attach accept is communicated to the first UE without the mobility element authenticating the first UE; receiving the location request from the first UE; and communicating location information to the first UE based on the location request, wherein the method further comprises: initializing, by the mobility element, a timer based on the attach type being associated with the network location service; and upon expiration of the timer, discarding, by the mobility element, context information associated with the first UE for the attach request obtained by the mobility element. obtaining , by a mobility element of a network, an attach request from a first user equipment, UE, wherein the attach request indicates an attach type associated with a network location service; communicating , based on the attach type being associated with the network location service, an attach accept to the first UE to trigger a location request for the first UE, wherein the attach accept is communicated to the first UE without the mobility element authenticating the first UE; receiving the location request from the first UE; and communicating location information to the first UE based on the location request, wherein the method further comprises: initializing, by the mobility element, a timer based on the attach type being associated with the network location service; and upon expiration of the timer, discarding, by the mobility element, context information associated with the first UE for the attach request obtained by the mobility element. initializing, by the mobility element, a timer based on the attach type being associated with the network location service; and upon expiration of the timer, discarding, by the mobility element, context information associated with the first UE for the attach request obtained by the mobility element.
Method to prepare water-soluble polymers by inverse emulsions polymerization comprising (i) preparation of an aqueous monomer solution, if necessary, adjusting pH value of the aforementioned monomer solution, (ii) preparation of an organic solution consisting of a water-immiscible organic liquid that does not interfere with the radical polymerization reaction in step (iv) and (v), said organic solution containing one or more surfactants, (iii) addition of the aqueous phase of step (i) to the organic phase of step (ii) to prepare a water-in-oil emulsion, (iv) removal of oxygen and initiation of the polymerization reaction by addition of an initiator system, (v) adjusting the reaction temperature by cooling and/or heating to allow complete polymerization of the monomers into a polymer, (vi) optionally addition of an inverter surfactant for facilitated inversion or further additives, wherein the initiator system of step (iv) is a redox initiator system, said redox initiator system consisting of at least one oxidizing agent and at least one reducing agent, and wherein the oxidizing agent is first added to the reaction mixture followed by the all-at-once addition of the reducing agent that optionally also removes residual oxygen, said water-soluble polymer preferably is a synthetic polymer, preferably a copolymer or terpolymer. (i) preparation of an aqueous monomer solution, if necessary, adjusting pH value of the aforementioned monomer solution, (ii) preparation of an organic solution consisting of a water-immiscible organic liquid that does not interfere with the radical polymerization reaction in step (iv) and (v), said organic solution containing one or more surfactants, (iii) addition of the aqueous phase of step (i) to the organic phase of step (ii) to prepare a water-in-oil emulsion, (iv) removal of oxygen and initiation of the polymerization reaction by addition of an initiator system, (v) adjusting the reaction temperature by cooling and/or heating to allow complete polymerization of the monomers into a polymer, (vi) optionally addition of an inverter surfactant for facilitated inversion or further additives,