mhurhangee/patent-ind-claim-en huggingface dataset:
Extender for mounting a rotor blade to a rotor hub housing of a wind turbine, wherein the extender is produced with cylindrical or conical contours in the axial direction, comprising a first connection region for a connection of the extender with a rotor-hub-side rotational connection and a second connection region for a connection of the extender with the rotor blade , wherein the second connection region is arranged opposite the first connection region and has an annular flange with a number of axial bores which are arranged distributed over the circumference of the annular flange, and wherein the second connection region has stiffening ribs arranged in the interior of the extender , characterized in that the stiffening ribs are distributed circumferentially between the bores , are oriented in the direction of the first connection region and are solidly joined to the second connection region such that one stiffening rib is arranged between every two bores , and such that the stiffening ribs are provided with axial bores .
A composition comprising the microbes in ATCC Patent Deposit Designation PTA-121755 and a liquid fertiliser.
Method of MR imaging of a body of a patient placed in an examination volume of a MR device , the method comprising the steps of: - subjecting the body to an imaging sequence, which comprises at least one excitation RF pulse and switched magnetic field gradients, wherein a number of pairs of echo signals is generated at two different echo times (TE1, TE2) with different phase encodings to sample a region of k-space, and wherein the generation of each pair of echo signals is repeated during two or more different cardiac phases (AW1, AW2) of a cardiac cycle; - acquiring the echo signals from the body ; - reconstructing phase images from the acquired echo signal data, wherein a phase image is reconstructed for each echo time and for each cardiac phase; and - reconstructing a final diagnostic image from the echo signal data using water/fat separation, wherein variation in velocity of blood flow over the cardiac cycle is reflected in local phase offsets between the phase images associated with the different cardiac phases, such that regions of flow and/or estimates of flow-induced phase errors are derived from the phase images to suppress or compensate for flow-induced leakage and/or swapping artifacts in the final diagnostic image. - subjecting the body to an imaging sequence, which comprises at least one excitation RF pulse and switched magnetic field gradients, wherein a number of pairs of echo signals is generated at two different echo times (TE1, TE2) with different phase encodings to sample a region of k-space, and wherein the generation of each pair of echo signals is repeated during two or more different cardiac phases (AW1, AW2) of a cardiac cycle; - acquiring the echo signals from the body ; - reconstructing phase images from the acquired echo signal data, wherein a phase image is reconstructed for each echo time and for each cardiac phase; and - reconstructing a final diagnostic image from the echo signal data using water/fat separation, wherein variation in velocity of blood flow over the cardiac cycle is reflected in local phase offsets between the phase images associated with the different cardiac phases, such that regions of flow and/or estimates of flow-induced phase errors are derived from the phase images to suppress or compensate for flow-induced leakage and/or swapping artifacts in the final diagnostic image.
A filter cartridge for a respiratory mask, the filter cartridge comprising a first and second frame member pivotally connected together at one end , said first frame member comprising a connecting member configured to connect said filter cartridge to a respiratory mask for use and defining a breathing aperture therethrough which extends through said first frame member and defines a respiratory flow path when said filter cartridge is in a first configuration, said filter cartridge being configured to receive a filter media therein or thereon to filter air, in use, flowing along said respiratory flow path, said first and second frame members being selectively pivotally moveable relative to each other from said first configuration to a second configuration in which a seal is formed between said first and second frame members and said respiratory flow path is blocked, characterised in that said filter cartridge further comprises a double-sided gasket seal comprising a first seal portion that provides said seal between said first and second frame members in said second configuration, and a second seal portion on said connecting member configured to form a seal between said filter cartridge and a respiratory mask, in use, wherein said first and second seal portions are formed integrally with each other by means of a single over-moulding process.
A method of drying a wet skin disposed on an outer surface of a cellular ceramic ware having first and second ends , a radius and a dry interior web, comprising: generating an airstream; and directing the airstream through the first end of the cellular ceramic ware only through an annular portion of the interior web that is adjacent the outer surface to cause moisture in the wet skin to migrate inwardly toward the interior web and to be removed from the annular portion of the interior web when the airstream exits the second end . generating an airstream; and directing the airstream through the first end of the cellular ceramic ware only through an annular portion of the interior web that is adjacent the outer surface to cause moisture in the wet skin to migrate inwardly toward the interior web and to be removed from the annular portion of the interior web when the airstream exits the second end .
A method for the production of polymerizable monomers from tall oil, comprising the steps of: - feeding sulphurous crude tall oil having a content of 30 to 70 weight-% of fatty acids and a content of 20 to 50 weight-% of resin acids and hydrogen gas into a catalyst bed; - catalytically deoxygenating the oil by hydrogen in the bed in a temperature of 280°C to 320°C , by use of a sulfided metal catalyst; - cooling the flow which has exited the bed, and separating a hydrocarbon-bearing liquid phase from a gas phase; and - subjecting the hydrocarbon-bearing liquid to steam cracking to form a product containing polymerizable olefins. - feeding sulphurous crude tall oil having a content of 30 to 70 weight-% of fatty acids and a content of 20 to 50 weight-% of resin acids and hydrogen gas into a catalyst bed; - catalytically deoxygenating the oil by hydrogen in the bed in a temperature of 280°C to 320°C , by use of a sulfided metal catalyst; - cooling the flow which has exited the bed, and separating a hydrocarbon-bearing liquid phase from a gas phase; and - subjecting the hydrocarbon-bearing liquid to steam cracking to form a product containing polymerizable olefins.
A method for designing a dental restoration , comprising the steps of: - detecting (S101) a target data set (DS-S) based on a natural tooth which reflects the optical properties and the geometry of the natural tooth ; - generating (S102) a digital tooth model with an internal architecture; - rendering (S103) the digital tooth model based on the internal architecture to generate an actual data set which reflects the optical properties and the geometry of the digital tooth model ; - calculating (S104) a deviation (ΔE S,I ) between the target data set (DS-S) and the actual data set (DS-I); and - iterative altering (S105) the digital tooth model to obtain a smaller deviation (ΔE S,I ) between the detected target data set (DS-S) and the actual data set (DS-I) of the re-rendered digital tooth model , characterized in that the deviation (ΔE S,I ) is calculated based on a Euclidean distance between the target data set (DS-S) and the actual data set (DS-I) or the deviation (ΔE S,I ) is calculated based on a spectral distance between the target data set (DS-S) and the actual data set (DS-I). - detecting (S101) a target data set (DS-S) based on a natural tooth which reflects the optical properties and the geometry of the natural tooth ; - generating (S102) a digital tooth model with an internal architecture; - rendering (S103) the digital tooth model based on the internal architecture to generate an actual data set which reflects the optical properties and the geometry of the digital tooth model ; - calculating (S104) a deviation (ΔE S,I ) between the target data set (DS-S) and the actual data set (DS-I); and - iterative altering (S105) the digital tooth model to obtain a smaller deviation (ΔE S,I ) between the detected target data set (DS-S) and the actual data set (DS-I) of the re-rendered digital tooth model ,
An acrylic polyester resin, obtainable by grafting an acrylic polymer with a polyester material, the polyester material being obtainable by polymerizing: iii) a polyacid component, with iv) a polyol component, including - 2,2,4,4-tetraalkylcyclobutane-1,3-diol wherein one of the polyacid component or the polyol component comprises a functional monomer operable to impart functionality on to the polyester resin, such that an acrylic polymer may be grafted with the polyester material via the use of said functionality. iii) a polyacid component, with iv) a polyol component, including - 2,2,4,4-tetraalkylcyclobutane-1,3-diol
A composite mass system, comprising: a drive mass (106; 206; 310); drive structures to drive the drive mass into oscillation in a first direction at a first frequency; a sense mass (102; 204; 312) mechanically coupled to the drive mass such that the sense mass is configured to be driven by the drive mass into oscillation in the first direction, wherein the sense mass is configured such that a resonant frequency of the sense mass is different from a resonant frequency of the drive mass so that the sense mass is configured to respond to an inertial force in the first direction at a second frequency that is different from the first frequency of the drive mass; a first time-domain switch (114, 116; 222, 224; 326, 328) configured to generate an output voltage based on a first current generated in part by the sense mass (102; 204; 312); and logic circuitry in signal communication with the first time-domain switch and configured to determine an inertial force acting on the composite mass system based on a time interval of the output voltage. a drive mass (106; 206; 310); drive structures to drive the drive mass into oscillation in a first direction at a first frequency; a sense mass (102; 204; 312) mechanically coupled to the drive mass such that the sense mass is configured to be driven by the drive mass into oscillation in the first direction, wherein the sense mass is configured such that a resonant frequency of the sense mass is different from a resonant frequency of the drive mass so that the sense mass is configured to respond to an inertial force in the first direction at a second frequency that is different from the first frequency of the drive mass; a first time-domain switch (114, 116; 222, 224; 326, 328) configured to generate an output voltage based on a first current generated in part by the sense mass (102; 204; 312); and logic circuitry in signal communication with the first time-domain switch and configured to determine an inertial force acting on the composite mass system based on a time interval of the output voltage.
An in vitro method for assessing the disease burden in human neuroblastoma patients comprising: - providing a sample obtained from a patient, - quantifying the expression level of all of the following miRNAs: miR-124-3p, miR-375, miR-323a-3p, miR-129-5p, miR-218-5p, miR-490-5p, miR-149-5p, miR-873-3p and miR-10b-3p in said sample, and, - assessing the disease burden based on the quantity of the expression level of all of said miRNAs wherein a relative increased abundance of all of said miRNAs correlates with an increased disease burden, wherein said assessing the disease burden allows to monitor disease and to evaluate treatment response. - providing a sample obtained from a patient, - quantifying the expression level of all of the following miRNAs: miR-124-3p, miR-375, miR-323a-3p, miR-129-5p, miR-218-5p, miR-490-5p, miR-149-5p, miR-873-3p and miR-10b-3p in said sample, and, - assessing the disease burden based on the quantity of the expression level of all of said miRNAs wherein a relative increased abundance of all of said miRNAs correlates with an increased disease burden, wherein said assessing the disease burden allows to monitor disease and to evaluate treatment response.
A coating for a CoCrMo substrate comprising: a first layer comprising Ta(CoCrMo) 0.5 - 2.0 ; a second layer comprising tantalum; a third layer comprising tantalum carbide; and a fourth layer comprising diamond-like carbon (DLC); wherein the tantalum of the second layer comprises alpha- tantalum; wherein: the first layer, the second layer, and the third layer each has an oxygen content lower than 5 atomic %; and/or, the second layer is doped with tungsten, niobium and/or titanium. a first layer comprising Ta(CoCrMo) 0.5 - 2.0 ; a second layer comprising tantalum; a third layer comprising tantalum carbide; and a fourth layer comprising diamond-like carbon (DLC); wherein the tantalum of the second layer comprises alpha- tantalum; wherein: the first layer, the second layer, and the third layer each has an oxygen content lower than 5 atomic %; and/or, the second layer is doped with tungsten, niobium and/or titanium. the first layer, the second layer, and the third layer each has an oxygen content lower than 5 atomic %; and/or, the second layer is doped with tungsten, niobium and/or titanium.
An orthodontic implant structure that can be used by being implanted in a bone inside an oral cavity comprising: a first screw having a screw body that can be implanted in the bone and an engaging portion that is formed by forming a thread in a head portion of the screw body ; a plate securing implement that is capable of being screwed into the thread; a second screw that can be implanted in the bone and has a head portion ; and a base plate having a first surface that can be disposed facing the bone and a second surface that is disposed on an opposite side from the first surface, the base plate in which a first attachment hole and a second attachment hole are formed, the first attachment hole with which the engaging portion is capable of being engaged from the first surface , and the second attachment hole into which the second screw is capable of being inserted from the second surface and locking the head portion of the second screw in place, characterized in that the base plate is directly supported in the direction from the first surface towards the second surface not by bone, but by the engaging portion of the first screw , and the base plate is directly supported by the head portion of the second screw in the direction from the second surface towards the first surface . a first screw having a screw body that can be implanted in the bone and an engaging portion that is formed by forming a thread in a head portion of the screw body ; a plate securing implement that is capable of being screwed into the thread; a second screw that can be implanted in the bone and has a head portion ; and a base plate having a first surface that can be disposed facing the bone and a second surface that is disposed on an opposite side from the first surface, the base plate in which a first attachment hole and a second attachment hole are formed, the first attachment hole with which the engaging portion is capable of being engaged from the first surface , and the second attachment hole into which the second screw is capable of being inserted from the second surface and locking the head portion of the second screw in place, characterized in that the base plate is directly supported in the direction from the first surface towards the second surface not by bone, but by the engaging portion of the first screw , and the base plate is directly supported by the head portion of the second screw in the direction from the second surface towards the first surface .
A method for controlling a vehicle transmission condition of a vehicle, wherein the vehicle has a first transmission parameter selector for selecting a transmission parameter, the method comprising the steps of: detecting a selector condition change in the first transmission parameter selector from a previous selector condition to a new selector condition; and setting a new vehicle transmission condition on the basis of at least the previous selector condition and the new selector condition characterised in that : the vehicle further has a second transmission parameter selector for selecting the transmission parameter, and wherein the step of detecting comprises detecting a selector condition change in the first transmission parameter selector or the second transmission parameter selector from a previous selector condition to a new selector condition. detecting a selector condition change in the first transmission parameter selector from a previous selector condition to a new selector condition; and setting a new vehicle transmission condition on the basis of at least the previous selector condition and the new selector condition characterised in that : the vehicle further has a second transmission parameter selector for selecting the transmission parameter, and wherein the step of detecting comprises detecting a selector condition change in the first transmission parameter selector or the second transmission parameter selector from a previous selector condition to a new selector condition.
A railway vehicle coach comprising a chassis and a bogie arranged below the chassis in a vertical direction, the coach including a thermally insulating screen , arranged between the chassis and the bogie, above the bogie in the vertical direction, characterized in that the screen comprises a first part , a second part substantially perpendicular to the first part and arranged away from the first part , and a substantially straight connecting part connecting the first and second parts.
DC traction sub-station for supplying at least one vehicle, preferentially a railway vehicle, with a direct current, DC, comprising: a first terminal adapted to connect DC traction sub-station to an alternating current, AC, electrical power grid ; a second terminal adapted to connect DC traction sub-station to a power supply conductor in order to provide driving current to the at least one vehicle or to receive regenerative braking current from the at least one vehicle; a third terminal adapted to be connected to an energy storage device for storing electrical energy; one or more first current supply chains electrically connecting the first terminal to the second terminal , wherein the first current supply chain comprising a first AC/DC converter ; wherein the DC traction sub-station further comprises one or more second current supply chains electrically connecting the first terminal to the third terminal , wherein the second current supply chain comprising a second AC/DC converter , and wherein a DC/DC converter electrically connects, within the DC traction sub-station , the second terminal to the third terminal, characterized in that the DC/DC converter is connected to a first electrical connection between the first current supply chain and the second terminal on one side and to a second electrical connection between the second current supply chain and the third terminal at the other side, wherein the second AC/DC converter is a bidirectional AC/DC converter converting from an alternating current to a direct current and vice versa, and wherein the DC/DC converter is a bidirectional DC/DC converter. a first terminal adapted to connect DC traction sub-station to an alternating current, AC, electrical power grid ; a second terminal adapted to connect DC traction sub-station to a power supply conductor in order to provide driving current to the at least one vehicle or to receive regenerative braking current from the at least one vehicle; a third terminal adapted to be connected to an energy storage device for storing electrical energy; one or more first current supply chains electrically connecting the first terminal to the second terminal , wherein the first current supply chain comprising a first AC/DC converter ; wherein the DC traction sub-station further comprises one or more second current supply chains electrically connecting the first terminal to the third terminal , wherein the second current supply chain comprising a second AC/DC converter , and wherein a DC/DC converter electrically connects, within the DC traction sub-station , the second terminal to the third terminal, characterized in that the DC/DC converter is connected to a first electrical connection between the first current supply chain and the second terminal on one side and to a second electrical connection between the second current supply chain and the third terminal at the other side, wherein the second AC/DC converter is a bidirectional AC/DC converter converting from an alternating current to a direct current and vice versa, and wherein the DC/DC converter is a bidirectional DC/DC converter.
Closed-loop control device for a process , which device is designed to influence the process by means of a manipulated variable (u) as a function of a control deviation (e) between a reference value (w) and a controlled variable (y) affected by a disturbance variable (d), - comprising a controller , which generates the manipulated variable (u) from the control deviation (e) fed to said controller, - comprising a controller dead zone element , which is connected in front of the controller and can be activated and deactivated by a control unit , and in the active state of which, the control deviation (e) fed via the controller dead zone element is influenced by a controller dead zone, and in the inactive state is uninfluenced, and which is deactivated if the control deviation (e) exceeds a first threshold value, and is reactivated once the control deviation (e) falls below a second threshold value, which is smaller than the first threshold value, characterised in that : - an application element , which contains a lowpass filter and a disturbance variable dead zone element in front thereof, and from the disturbance variable (d) generates an auxiliary manipulated variable (u*) which it applies to the manipulated variable (u). - comprising a controller , which generates the manipulated variable (u) from the control deviation (e) fed to said controller, - comprising a controller dead zone element , which is connected in front of the controller and can be activated and deactivated by a control unit , and in the active state of which, the control deviation (e) fed via the controller dead zone element is influenced by a controller dead zone, and in the inactive state is uninfluenced, and which is deactivated if the control deviation (e) exceeds a first threshold value, and is reactivated once the control deviation (e) falls below a second threshold value, which is smaller than the first threshold value, characterised in that : - an application element , which contains a lowpass filter and a disturbance variable dead zone element in front thereof, and from the disturbance variable (d) generates an auxiliary manipulated variable (u*) which it applies to the manipulated variable (u). - an application element , which contains a lowpass filter and a disturbance variable dead zone element in front thereof, and from the disturbance variable (d) generates an auxiliary manipulated variable (u*) which it applies to the manipulated variable (u).