mhurhangee/patent-ind-claim-en huggingface dataset:
A polyol mixture comprising: a) at least two polyols of different polyoxyethylene content, b) a catalyst, and c) at least one ethoxylated alcohol of the following formula: RO(CH 2 CH 2 O) n H, wherein R is C9-C15 linear or branched alkyl, n is an integer equal to or greater than 1; and wherein the at least one ethoxylated alcohol has a hydrophilic-lipophilic balance (HLB) value of equal to or greater than 3.7 and equal to or less than 17.9. a) at least two polyols of different polyoxyethylene content, b) a catalyst, and c) at least one ethoxylated alcohol of the following formula: RO(CH 2 CH 2 O) n H, wherein R is C9-C15 linear or branched alkyl, n is an integer equal to or greater than 1; and wherein the at least one ethoxylated alcohol has a hydrophilic-lipophilic balance (HLB) value of equal to or greater than 3.7 and equal to or less than 17.9.
A process for removing contaminants from olefin containing C 4 streams comprising contacting said olefin containing C 4 streams with an X based zeolite adsorbent comprising >88% X zeolite at a SiO 2 /Al 2 O 3 ratio of less than 2.5 and an alkali metal salt present in excess of an amount required to achieve full exchange of cation sites on said X based zeolite wherein a resulting alkali oxide on a volatile free basis is less than 1% (by mass) of the X based adsorbent.
A catalyst comprising an Ir layer having an outer layer with a layer comprising Pt directly thereon, wherein the Ir layer has an average thickness in a range from 0.04 to 30 nanometers, wherein the layer comprising Pt has an average thickness in a range from 0.04 to 50 nanometers, wherein the Pt and Ir are present in an atomic ratio in a range from 0.01:1 to 10:1, and wherein the catalyst further comprises nanoscopic metal crystallites extending from the surface of the catalyst.
Use of an at least two-layered joint tape in road construction for the production of seams and/or connections, in particular in cover layers of asphalt mix, comprising a joint tape body of a bitumen-containing material and at least one thermally activatable adhesive layer arranged thereon, the adhesive layer being substantially non-tacky in a temperature range from -20°C to 45°C, and in the non-activated state at room temperature of 23°C not providing sufficient adhesion for the production of seams and/or connections to a flank of the seam and/or connection, wherein the use is effected in such a way in that, in a first step, the non-activated joint tape is deposited on a flank of a seam and/or a connection, in a second step, the at least one adhesive layer is thermally activated so that it has a tack which allows sufficient adhesion to a flank of the seam and/or connection for producing seams and/or connections, the activation takes place at a temperature of at least 50°C and the duration of activating the adhesive layer is in a range from 0.1 s to 3 s, and in a third step, the joint tape is pressed against the flank.
A Radio Frequency (RF) transmitter coil assembly for use in a Magnetic Resonance (MR) scanner, the RF transmitter coil assembly configured for being coaxially mounted to an MRI magnet assembly and for surrounding an imaging region within an axial bore of the MRI magnet assembly; wherein the RF transmitter coil assembly includes an RF coil cavity ; a non-rigid sound-absorbing material filling the RF coil cavity ; an electrical coil sub-assembly comprised of inductive and capacitive elements ; a non-rigid sound absorbing substrate supporting the electrical coil sub-assembly; and an RF coil shell constructed with a flexible cloth-like material: wherein the electrical coil sub-assembly is disposed within the RF coil cavity and the RF coil cavity is contained within the RF coil shell; wherein the RF coil shell and the non-rigid sound-absorbing material are configured to align the substrate within the RF transmitter coil assembly ; and wherein the RF coil shell encapsulates the RF coil substrate, the electrical coil sub-assembly, and the sound-absorbing material within the RF coil cavity. wherein the RF transmitter coil assembly includes an RF coil cavity ; a non-rigid sound-absorbing material filling the RF coil cavity ; an electrical coil sub-assembly comprised of inductive and capacitive elements ; a non-rigid sound absorbing substrate supporting the electrical coil sub-assembly; and an RF coil shell constructed with a flexible cloth-like material: wherein the electrical coil sub-assembly is disposed within the RF coil cavity and the RF coil cavity is contained within the RF coil shell; wherein the RF coil shell and the non-rigid sound-absorbing material are configured to align the substrate within the RF transmitter coil assembly ; and wherein the RF coil shell encapsulates the RF coil substrate, the electrical coil sub-assembly, and the sound-absorbing material within the RF coil cavity.
A heat exchanger for a nuclear reactor, comprising: a hot flow channel ; a cold flow channel fluidically separated from the hot flow channel; and a porous thermally insulative layer disposed between the hot flow channel and the cold flow channel, the porous thermally insulative layer comprising: an inlet ; an outlet ; and a fluid pathway between the inlet and the outlet; and wherein the porous thermally insulative layer is configured to flow a control gas through the fluid pathway, the control gas configured to influence a thermal energy transfer efficiency of the porous thermally insulative layer; the heat exchanger being characterized in that , in use, the control gas is a mixture of two or more gases; and in that it further comprises a mixing control configured to change the mixture of the two or more gases to vary the thermal energy transfer efficiency of the porous thermally insulative layer. a hot flow channel ; a cold flow channel fluidically separated from the hot flow channel; and a porous thermally insulative layer disposed between the hot flow channel and the cold flow channel, the porous thermally insulative layer comprising: an inlet ; an outlet ; and a fluid pathway between the inlet and the outlet; and wherein the porous thermally insulative layer is configured to flow a control gas through the fluid pathway, the control gas configured to influence a thermal energy transfer efficiency of the porous thermally insulative layer; the heat exchanger being characterized in that , in use, the control gas is a mixture of two or more gases; and in that it further comprises an inlet ; an outlet ; and a fluid pathway between the inlet and the outlet; and wherein the porous thermally insulative layer is configured to flow a control gas through the fluid pathway, the control gas configured to influence a thermal energy transfer efficiency of the porous thermally insulative layer; the heat exchanger being characterized in that , in use, the control gas is a mixture of two or more gases; and in that it further comprises a mixing control configured to change the mixture of the two or more gases to vary the thermal energy transfer efficiency of the porous thermally insulative layer.
Pilot control unit for at least one valve drive of a hydraulic valve with a valve slide , wherein the valve slide can be adjusted by the valve drive , in order to supply hydraulic lines with hydraulic fluid through the hydraulic valve , wherein the pilot control unit is set up to supply electronics and a power end stage for actuating an electrical actuator of the valve drive with electrical energy and operating commands, wherein for the supply of the electronics with operating commands the pilot control unit comprises a control , in which for this purpose a parametrization module is present, in which operating parameters for the operation of the at least one hydraulic valve by the valve drive thereof are stored, characterized in that the pilot control unit has an electrical energy store , wherein the electrical energy store is set up so that the valve slide is moved by the valve drive and energy stored in the electrical energy store from any possible valve slide position into a cutout position, wherein the respective setup of the electrical energy store is realized by the control set up for this purpose in the pilot control unit, wherein the control is configured as an emergency control and the electrical energy store as an emergency power supply and they are set up to supply electrical energy for at least one emergency cutout, when a fault is detected in an external power supply of the hydraulic valve , wherein the emergency cutout is set up to move the valve slide from each possible valve slide position into the cutout position.
An image processing system comprising: image obtaining means for obtaining images captured from a plurality of directions by a plurality of cameras ; information obtaining means for obtaining viewpoint information indicating a virtual viewpoint; and generation means for generating virtual viewpoint images on a basis of the images obtained by the image obtaining means and the viewpoint information obtained by the information obtaining means, wherein the generation means is configured to generate a first virtual viewpoint image to be outputted to a display apparatus used by a user to specify a virtual viewpoint and to generate a second virtual viewpoint image to be outputted to an output destination different from the display apparatus by using at least one of the first virtual viewpoint image and data generated in a process for generating the first virtual viewpoint image by image processing using the plurality of images obtained by the image obtaining means, the second virtual viewpoint image having a higher image quality than that of the first virtual viewpoint image. image obtaining means for obtaining images captured from a plurality of directions by a plurality of cameras ; information obtaining means for obtaining viewpoint information indicating a virtual viewpoint; and generation means for generating virtual viewpoint images on a basis of the images obtained by the image obtaining means and the viewpoint information obtained by the information obtaining means, wherein the generation means is configured to generate a first virtual viewpoint image to be outputted to a display apparatus used by a user to specify a virtual viewpoint and to generate a second virtual viewpoint image to be outputted to an output destination different from the display apparatus by using at least one of the first virtual viewpoint image and data generated in a process for generating the first virtual viewpoint image by image processing using the plurality of images obtained by the image obtaining means, the second virtual viewpoint image having a higher image quality than that of the first virtual viewpoint image.
A fuel cell system , comprising: a fuel cell ; a fuel tank ; a fuel distribution pipe fluidly connecting the fuel tank with a fuel inlet of the fuel cell ; a shroud surrounding at least a portion of the fuel distribution pipe ; an inerting system configured to generate nitrogen enriched air, NEA, and oxygen enriched air, OEA; and an NEA pipe conducting the nitrogen enriched air into the shroud . a fuel cell ; a fuel tank ; a fuel distribution pipe fluidly connecting the fuel tank with a fuel inlet of the fuel cell ; a shroud surrounding at least a portion of the fuel distribution pipe ; an inerting system configured to generate nitrogen enriched air, NEA, and oxygen enriched air, OEA; and an NEA pipe conducting the nitrogen enriched air into the shroud .
A biocompatible magnetic material comprising: an iron oxide-organic acid nanoparticle; and one or more biocompatible polymers, each having formula (I) below, covalently bonded to the iron oxide-organic acid nanoparticle: in which R is H, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 3 -C 10 cycloalkyl, C 1 -C 10 heterocycloalkyl, aryl, heteroaryl, a C 1 -C 10 carbonyl group, or a C 1 -C 10 amine group; L is a linker; x is 1 to 10; and y is 5 to 1000, wherein the iron oxide-organic acid contains 4-10 % Fe(II) ions relative to the total iron ions. an iron oxide-organic acid nanoparticle; and one or more biocompatible polymers, each having formula (I) below, covalently bonded to the iron oxide-organic acid nanoparticle: in which R is H, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 3 -C 10 cycloalkyl, C 1 -C 10 heterocycloalkyl, aryl, heteroaryl, a C 1 -C 10 carbonyl group, or a C 1 -C 10 amine group; L is a linker; x is 1 to 10; and y is 5 to 1000, wherein the iron oxide-organic acid contains 4-10 % Fe(II) ions relative to the total iron ions. R is H, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 3 -C 10 cycloalkyl, C 1 -C 10 heterocycloalkyl, aryl, heteroaryl, a C 1 -C 10 carbonyl group, or a C 1 -C 10 amine group; L is a linker; x is 1 to 10; and y is 5 to 1000,
Liquid-crystalline medium which comprises a compound of the formula I1 and/or a compound of the formula 12, one or more compounds of the formula EY in which the individual radicals in each case, independently of one another, and identically or differently on each occurrence, have one of the following meanings: R 1 and R 1* denote H, an alkyl or alkenyl radical having up to 15 C atoms which is unsubstituted, monosubstituted by CN or CF 3 or at least monosubstituted by halogen, where, in addition, one or more CH 2 groups in these radicals may be replaced by -O-, -S-, -C≡C-, -CF 2 O-, -OCF 2 -, -OC-O- or -O-CO- in such a way that O atoms are not linked directly to one another, or a cycloalkyl ring having 3 to 6 C atoms, L 1 and L 2 denote F, Cl, CF 3 or CHF 2 , preferably F, and one or more compounds selected from the biphenyls of the formulae B-1a and B-2a to B-2c in which alkyl* denotes an alkyl radical having 1-6 C atoms, with the proviso that the liquid-crystalline medium does not comprise a compound of the formula 13, R 1 and R 1* denote H, an alkyl or alkenyl radical having up to 15 C atoms which is unsubstituted, monosubstituted by CN or CF 3 or at least monosubstituted by halogen, where, in addition, one or more CH 2 groups in these radicals may be replaced by -O-, -S-, -C≡C-, -CF 2 O-, -OCF 2 -, -OC-O- or -O-CO- in such a way that O atoms are not linked directly to one another, or a cycloalkyl ring having 3 to 6 C atoms, L 1 and L 2 denote F, Cl, CF 3 or CHF 2 , preferably F,
A method , comprising: using a discovery service to determine one or more parameters associated with a storage device via a network over a medium; transmitting data from at least one sensor to a storage device via the network over the medium; processing the data and storing at least a portion of the data at the storage device ; and transmitting at least a second portion of the data via the network to at least one host , wherein the storage device comprises at least one of 1) a namespace or 2) a stream, and the method further comprises specifying, by the sensor , the namespace or the stream for the storing the at least a portion of the data . using a discovery service to determine one or more parameters associated with a storage device via a network over a medium; transmitting data from at least one sensor to a storage device via the network over the medium; processing the data and storing at least a portion of the data at the storage device ; and transmitting at least a second portion of the data via the network to at least one host ,
A method of increasing production of a target polypeptide in a cell comprising: (a) recombinantly expressing a first polynucleotide encoding the target polypeptide in the cell, (b) genetically engineering the cell to express a second polynucleotide encoding a second polypeptide capable of increasing the level of antioxidant in the cell, the second polynucleotide selected from the mannose-galactose pathway, the galacturonate pathway, the Gulose pathway and the myo -inositol pathway, wherein expression of the second polynucleotide increases antioxidant levels within the cell and results in increased production of the target polypeptide as compared to production of the target polypeptide in a control cell, and wherein the target polypeptide is a non-native polypeptide, or is a native polypeptide that is expressed recombinantly by the first polynucleotide. (a) recombinantly expressing a first polynucleotide encoding the target polypeptide in the cell, (b) genetically engineering the cell to express a second polynucleotide encoding a second polypeptide capable of increasing the level of antioxidant in the cell,
A method for operating a terminal in a wireless communication system, the method comprising: performing a first access procedure for accessing a first base station using a first antenna of the terminal and a second access procedure for accessing a second base station using a second antenna of the terminal; communicating with the first base station using the first antenna and communicating with the second base station using the second antenna; determining, among the first base station and the second base station , a base station for transmitting control information exchanged between the second base station and the terminal based on a first radio link quality between the first base station and the terminal and a second radio link quality between the second base station and the terminal ; and transmitting, if the base station is determined as the first base station , the control information to the first base station using the first antenna. performing a first access procedure for accessing a first base station using a first antenna of the terminal and a second access procedure for accessing a second base station using a second antenna of the terminal; communicating with the first base station using the first antenna and communicating with the second base station using the second antenna; determining, among the first base station and the second base station , a base station for transmitting control information exchanged between the second base station and the terminal based on a first radio link quality between the first base station and the terminal and a second radio link quality between the second base station and the terminal ; and transmitting, if the base station is determined as the first base station , the control information to the first base station using the first antenna.
A method for demannosylating phosphorylated N-glycans on a glycoprotein, said method comprising contacting a glycoprotein comprising a terminal alpha-1,2 mannose linkage in which the underlying mannose is phosphorylated with a mannosidase, or with a biologically active fragment of the mannosidase, wherein the mannosidase or fragment is capable of hydrolysing a terminal alpha-1,2 mannose linkage when the underlying mannose is phosphorylated and the contacting results in hydrolysis of the terminal alpha-1,2 mannose linkage to produce a demannosylated glycoprotein, and wherein the mannosidase comprises an amino acid sequence that is at least 70% identical to SEQ ID NO: 5, or comprises an amino acid sequence encoded by a nucleic acid that is at least 70% identical to the nucleic acid sequence SEQ ID NO: 4.
An impeller assembly, comprising: an impeller rotatably provided on a bottom case ; a magnetic coupling driver for driving the impeller to rotate, having a first magnetic coupling member and a second magnetic coupling member connected to the impeller , the first magnetic coupling member being movable in an axial direction of the impeller relative to the second magnetic coupling member ; characterized in that the impeller assembly further comprises: a supporting structure at least provided on one end of the impeller close to the magnetic coupling driver and fixed on a supporting seat , the magnetic coupling driver is detachable relative to the supporting seat , the impeller and the first magnetic coupling member are connected by a rotation shaft , and the rotation shaft is rotated relative to the supporting structure , the supporting structure comprises: a supporting shaft sleeve , in which an inner ring surface thereof is sleeved on an outer surface of the rotation shaft ; and a rubber seat bracket fixedly connected to the supporting shaft sleeve , and the rubber seat bracket adapted to be fixedly mounted on the supporting seat , the first magnetic coupling member is integrally formed or fastened to the rotation shaft , the supporting seat is configured to be fixed on the bottom case . an impeller rotatably provided on a bottom case ; a magnetic coupling driver for driving the impeller to rotate, having a first magnetic coupling member and a second magnetic coupling member connected to the impeller , the first magnetic coupling member being movable in an axial direction of the impeller relative to the second magnetic coupling member ; characterized in that the impeller assembly further comprises: a supporting structure at least provided on one end of the impeller close to the magnetic coupling driver and fixed on a supporting seat , the magnetic coupling driver is detachable relative to the supporting seat , the impeller and the first magnetic coupling member are connected by a rotation shaft , and the rotation shaft is rotated relative to the supporting structure , the supporting structure comprises: a supporting shaft sleeve , in which an inner ring surface thereof is sleeved on an outer surface of the rotation shaft ; and a rubber seat bracket fixedly connected to the supporting shaft sleeve , and the rubber seat bracket adapted to be fixedly mounted on the supporting seat , the first magnetic coupling member is integrally formed or fastened to the rotation shaft , the supporting seat is configured to be fixed on the bottom case .
A cleaning robot comprising: a user interface configured to display a map image including one or more divided regions, wherein the user interface displays an icon corresponding to a state value of a main device on the map image ; and a controller configured to: set a target point within the divided region, wherein the target point is one of: a central point of the divided region, a point farthest from surrounding obstacles within the divided region, and a point within the divided region and closest to a current position of the main device ; set a virtual wall on the map image , and control the main device to perform cleaning from the target point. a user interface configured to display a map image including one or more divided regions, wherein the user interface displays an icon corresponding to a state value of a main device on the map image ; and a controller configured to: set a target point within the divided region, wherein the target point is one of: a central point of the divided region, a point farthest from surrounding obstacles within the divided region, and a point within the divided region and closest to a current position of the main device ; set a virtual wall on the map image , and control the main device to perform cleaning from the target point. set a target point within the divided region, wherein the target point is one of: a central point of the divided region, a point farthest from surrounding obstacles within the divided region, and a point within the divided region and closest to a current position of the main device ; set a virtual wall on the map image , and control the main device to perform cleaning from the target point.