mhurhangee/ep-ind-claims huggingface dataset:
A rotary lock apparatus comprising: a structural ground; a shaft rotatable about a shaft axis relative to the structural ground, the shaft including a detent portion; a first locking component displaceable along the shaft axis to cause the detent portion of the shaft to be engaged and coupled to the structural ground in a manner preventing rotation of the shaft about the shaft axis; a second locking component displaceable along the shaft axis to cause the detent portion of the shaft to be engaged and coupled to the structural ground in a manner preventing rotation of the shaft about the shaft axis; and characterised in that there is an actuating means for displacing the first locking component and the second locking component along the shaft axis in opposite axial directions through a combined displacement distance such that at least one of the first and second locking components (30A, 30B) positively causes the shaft to be engaged and coupled to the structural ground to thereby lock the shaft against rotation about the shaft axis relative to the structural ground; wherein when the first locking component is prevented from causing the detent portion of the shaft to be engaged, the actuating means increases displacement of the second locking component along the shaft axis to achieve the combined displacement distance; and wherein when the second locking component is prevented from causing the detent portion of the shaft to be engaged, the actuating means increases displacement of the first locking component to achieve the combined displacement distance. a structural ground; a shaft rotatable about a shaft axis relative to the structural ground, the shaft including a detent portion; a first locking component displaceable along the shaft axis to cause the detent portion of the shaft to be engaged and coupled to the structural ground in a manner preventing rotation of the shaft about the shaft axis; a second locking component displaceable along the shaft axis to cause the detent portion of the shaft to be engaged and coupled to the structural ground in a manner preventing rotation of the shaft about the shaft axis; and characterised in that there is an actuating means for displacing the first locking component and the second locking component along the shaft axis in opposite axial directions through a combined displacement distance such that at least one of the first and second locking components (30A, 30B) positively causes the shaft to be engaged and coupled to the structural ground to thereby lock the shaft against rotation about the shaft axis relative to the structural ground; wherein when the first locking component is prevented from causing the detent portion of the shaft to be engaged, the actuating means increases displacement of the second locking component along the shaft axis to achieve the combined displacement distance; and wherein when the second locking component is prevented from causing the detent portion of the shaft to be engaged, the actuating means increases displacement of the first locking component to achieve the combined displacement distance.
A catalyst composition comprising at least one gelling catalyst selected from the group consisting of N.N'-bis[bis-N",N"-(3-dimethylaminopropyl)-N"- (3-aminopropyl)]urea; N,N-bis(3-dimethylaminopropyl)-N-(3-aminopropyl)] urea; N,N-bis(3-dimethylaminopropyl)-N-[3-aminopropyl-N',N'-bis(2-hydroxypropyl)]amine; N,N-bis(3-dimethylaminopropyl)-N-[3-aminopropyl-N'N'-bis[2-hydroxyethyl)amine; N,N-bis(3-dimethylaminopropyl)-N-[3-aminopropyl-N'-(2-hydroxyethyl)]amine; and further comprising at least one blowing catalyst, which comprises at least one member selected from the group consisting of N,N,N'-trimethyl-N'-3-aminopropyl- bis(aminoethyl) ether or 2-[N-(dimethylaminoethoxyethyl)-N-methylamino]ethanoland N,N,N'-trimethyl-N'-3-aminopropyl-bis(aminoethyl) ether.
Jet suction box for a suction-extraction apparatus of a device for hydroentanglement of a fibrous material web, in particular of a nonwoven, wherein the jet suction box is provided and configured to suck in the liquid jets emitted by the device for hydroentanglement and exiting the fibrous material web again, and wherein, on its box casing, the hollow jet suction box has at least one slot-like casing opening leading to the box interior space thereof, wherein, on its box casing, the jet suction box has at least one suction nozzle with a slot-like suction opening whose width increases continuously towards the box interior space and the casing opening, wherein the suction nozzle is in the form of a nozzle attachment and is arranged above the casing opening, wherein the width of the casing opening is equal to or larger than the outlet-side width of the suction opening.
A method for a wireless device comprising: receiving, by the wireless device, one or more messages comprising one or more configuration parameters: indicating a plurality of transmission configuration indication, TCI, states; and comprising at least one configuration parameter of a first downlink transmission group and a second downlink transmission group; receiving a medium access control control element, MAC CE, comprising: a first field identifying one of the first downlink transmission group and the second downlink transmission group; and a second field activating one or more TCI states, of the plurality of TCI states, for a downlink transmission group identified by the first field; receiving a downlink control information, DCI, scheduling a transport block; and in response to receiving the DCI, receiving the transport block based on a TCI state among the one or more TCI states of the downlink transmission group. receiving, by the wireless device, one or more messages comprising one or more configuration parameters: indicating a plurality of transmission configuration indication, TCI, states; and comprising at least one configuration parameter of a first downlink transmission group and a second downlink transmission group; indicating a plurality of transmission configuration indication, TCI, states; and comprising at least one configuration parameter of a first downlink transmission group and a second downlink transmission group; receiving a medium access control control element, MAC CE, comprising: a first field identifying one of the first downlink transmission group and the second downlink transmission group; and a second field activating one or more TCI states, of the plurality of TCI states, for a downlink transmission group identified by the first field; a first field identifying one of the first downlink transmission group and the second downlink transmission group; and a second field activating one or more TCI states, of the plurality of TCI states, for a downlink transmission group identified by the first field; receiving a downlink control information, DCI, scheduling a transport block; and in response to receiving the DCI, receiving the transport block based on a TCI state among the one or more TCI states of the downlink transmission group.
A phosphor comprising a crystal phase with a chemical composition (Lu x Y 1-x) y M 3-y-z Ce z β p γ q, where M denotes one or more elements selected from the group consisting of La, Sc, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, and Yb, β contains Si, which constitutes 90% or more by mole of β, y contains N, which constitutes 90% or more by mole of y, and x, y, z, p, and q satisfy 0 < x ≤ 1, 1.5 ≤ y ≤ 3 - z, 0 < z ≤ 0.6, 5.5 ≤p≤6.5, and 10.5 ≤ q ≤ 11.5, wherein the phosphor has an emission spectrum peak at a wavelength in a range of not less than 600 nm and not more than 680 nm. where M denotes one or more elements selected from the group consisting of La, Sc, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, and Yb, β contains Si, which constitutes 90% or more by mole of β, y contains N, which constitutes 90% or more by mole of y, and x, y, z, p, and q satisfy 0 < x ≤ 1, 1.5 ≤ y ≤ 3 - z, 0 < z ≤ 0.6, 5.5 ≤p≤6.5, and 10.5 ≤ q ≤ 11.5, wherein the phosphor has an emission spectrum peak at a wavelength in a range of not less than 600 nm and not more than 680 nm.
A method of preparing a silicon carbide honeycomb comprising: forming a first mixture comprising silicon carbide and carbon black; vacuum extruding the first mixture, thus forming a second mixture; loading the second mixture into a mold, thus forming a first molded product having a honeycomb shape; drying the first molded product using microwaves, thus forming a second molded product; and reaction sintering the second molded product with metal silicon, thus forming a silicon carbide honeycomb having a porosity of 5% or less but exceeding 0%, wherein in the first mixture, the silicon carbide and the carbon black are contained in a weight ratio of 70:30 ∼ 80:20, and wherein the reaction sintering the second molded product with metal silicon thus forming the silicon carbide honeycomb is performed by reaction sintering 85 ∼ 100 parts by weight of the metal silicon based on 100 parts by weight of the second molded product to form the silicon carbide honeycomb. forming a first mixture comprising silicon carbide and carbon black; vacuum extruding the first mixture, thus forming a second mixture; loading the second mixture into a mold, thus forming a first molded product having a honeycomb shape; drying the first molded product using microwaves, thus forming a second molded product; and reaction sintering the second molded product with metal silicon, thus forming a silicon carbide honeycomb having a porosity of 5% or less but exceeding 0%, wherein in the first mixture, the silicon carbide and the carbon black are contained in a weight ratio of 70:30 ∼ 80:20, and wherein the reaction sintering the second molded product with metal silicon thus forming the silicon carbide honeycomb is performed by reaction sintering 85 ∼ 100 parts by weight of the metal silicon based on 100 parts by weight of the second molded product to form the silicon carbide honeycomb.
A method of handling network traffic, comprising: - receiving packet inspection data indicating service-related data traffic of a specific user and/or a specific service; - determining a packet filter (72, 74) on the basis of said packet inspection data, wherein said packet filter (72, 74) is configured to filter data traffic on the basis of an identifier included into the data packets of said service-related data traffic in response to packet inspection; and - configuring the packet filter (72, 74) in a gateway. - receiving packet inspection data indicating service-related data traffic of a specific user and/or a specific service; - determining a packet filter (72, 74) on the basis of said packet inspection data, wherein said packet filter (72, 74) is configured to filter data traffic on the basis of an identifier included into the data packets of said service-related data traffic in response to packet inspection; and - configuring the packet filter (72, 74) in a gateway.
A method, comprising: receiving, from a first client, client data associated with a first industrial automation project, wherein the client data defines one or more characteristics of a design of the first industrial automation project, wherein the client data is related to one or more electrical loads of the first industrial automation project; parsing historical data associated with a plurality of previous industrial automation projects; identifying at least one previous industrial automation project of the plurality of previous industrial automation projects that corresponds to the first industrial automation project based on a comparison of the client data and the historical data associated with the plurality of previous industrial automation projects; generating a motor control lineup (232, 242, 244) based on the client data and the at least one previous industrial automation project that corresponds to the first industrial automation project; generating a visual representation of the motor control lineup including a graphical object corresponding to each of the one or more electrical loads; presenting the visual representation for display via a graphical user interface, GUI; receiving, via the GUI, one or more inputs modifying the motor control lineup; and modifying the motor control lineup and the visual representation based on the one or more inputs. receiving, from a first client, client data associated with a first industrial automation project, wherein the client data defines one or more characteristics of a design of the first industrial automation project, wherein the client data is related to one or more electrical loads of the first industrial automation project; parsing historical data associated with a plurality of previous industrial automation projects; identifying at least one previous industrial automation project of the plurality of previous industrial automation projects that corresponds to the first industrial automation project based on a comparison of the client data and the historical data associated with the plurality of previous industrial automation projects; generating a motor control lineup (232, 242, 244) based on the client data and the at least one previous industrial automation project that corresponds to the first industrial automation project; generating a visual representation of the motor control lineup including a graphical object corresponding to each of the one or more electrical loads; presenting the visual representation for display via a graphical user interface, GUI; receiving, via the GUI, one or more inputs modifying the motor control lineup; and modifying the motor control lineup and the visual representation based on the one or more inputs.
Housing for one or more micro-mechanical and/or micro-optical components, in particular movable micro-mirrors and/or micro-mirror arrays, comprising a carrier substrate with at least one micro-mechanical and/or micro-optical component for processing electromagnetic radiation with wavelengths selected from the ultraviolet, visible and infrared wavelength range, and at least one cover substrate (2, 3), which is connected to the carrier substrate and the side of which that is facing the at least one micro-mechanical and/or micro-optical component has an optical window and a mechanical stop, the carrier substrate and the at least one cover substrate forming at least one cavity, which at least partially encloses the at least one micro-mechanical and/or micro-optical component, and the mechanical stop being formed in one piece with the cover substrate (2, 3), characterized in that the optical window has a planarity deviation of less than one quarter of the wavelength of the radiation processed by the micro-mechanical and/or micro-optical component and less than or equal to 180 nm, in particular less than or equal to 110 nm.
A method of increasing the sulfuric acid concentration of a first aqueous sulfuric acid solution with a sulfuric acid concentration of 82-89% to a concentrated sulfuric acid solution with a sulfuric acid concentration of at least 90%, comprising the steps of evaporating water from the first aqueous sulfuric acid solution in an evaporator vessel to the concentrated sulfuric acid solution, pumping around a mixture of the first aqueous sulfuric acid solution, part of the concentrated sulfuric acid solution, a second aqueous sulfuric acid solution, and hydrogen peroxide through an enameled piping system comprising the evaporator vessel and one or more heaters and pumps, which piping system is operating at a temperature of at least 180 °C, characterized in that the sulfuric acid concentration of the second aqueous sulfuric acid solution is at least 90%.
Method for freezing biopharmaceutical fluid comprising the steps: a. Providing a disposable container having a bottom surface and a top surface, the bottom surface and the top surface delimiting at least partly a cavity and the container being provided with at least one port; b. Providing a cooling device comprising a heat transfer surface area; c. Arranging the container on the heat transfer surface area, the bottom surface of the container being directed toward the heat transfer surface area; d. Filling the cavity of the container with a biopharmaceutical fluid through the port; e. Cooling the heat transfer surface area to cool the bottom surface of the container until freezing and forming a layer of ice or at least one ice block of biopharmaceutical fluid inside the cavity on the bottom surface of the container; characterized in that, the method further comprises the Z steps of: f. Dislodging the ice layer or the at least one ice block frozen to the bottom surface from the bottom surface of the container in the cavity; g. Repeating the steps of cooling the heat transfer surface area and dislodging the ice layer or the at least one ice block until the cavity is filled with a matrix of frozen biopharmaceutical fluid and liquid biopharmaceutical fluid, the liquid biopharmaceutical fluid occupying interstitial passages between ice layers or ice blocks of biopharmaceutical fluid; h. Maintaining the cooling until the freezing of the entire biopharmaceutical fluid held in the container. a. Providing a disposable container having a bottom surface and a top surface, the bottom surface and the top surface delimiting at least partly a cavity and the container being provided with at least one port; b. Providing a cooling device comprising a heat transfer surface area; c. Arranging the container on the heat transfer surface area, the bottom surface of the container being directed toward the heat transfer surface area; d. Filling the cavity of the container with a biopharmaceutical fluid through the port; e. Cooling the heat transfer surface area to cool the bottom surface of the container until freezing and forming a layer of ice or at least one ice block of biopharmaceutical fluid inside the cavity on the bottom surface of the container; f. Dislodging the ice layer or the at least one ice block frozen to the bottom surface from the bottom surface of the container in the cavity; g. Repeating the steps of cooling the heat transfer surface area and dislodging the ice layer or the at least one ice block until the cavity is filled with a matrix of frozen biopharmaceutical fluid and liquid biopharmaceutical fluid, the liquid biopharmaceutical fluid occupying interstitial passages between ice layers or ice blocks of biopharmaceutical fluid; h. Maintaining the cooling until the freezing of the entire biopharmaceutical fluid held in the container.
A tire, comprising: a plurality of first blocks disposed in a first region on one side in a tire width direction demarcated by a tire equatorial plane in a tread portion; and a plurality of second blocks disposed in a second region on an other side in the tire width direction demarcated by the tire equatorial plane in the tread portion, stud pins being mounted in tire ground contact surfaces of the first blocks and the second blocks, a plurality of stud holes in which the stud pins of the first blocks are disposed being arranged inclined in a tire circumferential direction, and the first blocks having a shape that is longer in the tire circumferential direction and forming circumferential rows in which a plurality of the first blocks are arranged side by side in the tire circumferential direction, the first blocks in each of the circumferential rows being arranged in a staggered manner in the tire width direction, and a circumferential groove provided between the circumferential rows being formed in a curvilinear manner. a plurality of first blocks disposed in a first region on one side in a tire width direction demarcated by a tire equatorial plane in a tread portion; and a plurality of second blocks disposed in a second region on an other side in the tire width direction demarcated by the tire equatorial plane in the tread portion, stud pins being mounted in tire ground contact surfaces of the first blocks and the second blocks, a plurality of stud holes in which the stud pins of the first blocks are disposed being arranged inclined in a tire circumferential direction, and the first blocks having a shape that is longer in the tire circumferential direction and forming circumferential rows in which a plurality of the first blocks are arranged side by side in the tire circumferential direction, the first blocks in each of the circumferential rows being arranged in a staggered manner in the tire width direction, and a circumferential groove provided between the circumferential rows being formed in a curvilinear manner.
A current-to-voltage converter able to receive an input current (I modulated) having a variable component, the converter comprising: - an input for the current to be converted; - an output for the converted voltage; - a current-to-voltage conversion resistance connected between the output and a reference potential, - a processing circuit configured to convey the input current (I modulated) from the input to the resistance comprising: + a voltage source; + a main branch comprising at least one transistor whose gate is connected to the voltage source and at least one current source connected in series with the transistor, the input being connected to the output via the transistor; characterized in that it comprises, in addition: - a twin circuit comprising: + a voltage source that is identical to the voltage source of the processing circuit; + a twin branch that is identical to the main branch of the processing circuit; - a voltage follower that is connected at the input to the main branch of the processing circuit and connected at the output to the twin branch of the twin circuit, and - current reinjection means (51, 106) for reinjecting the current at the output of the follower into the main branch of the processing circuit; and in that the voltage follower comprises a first output for conveying a current to a node of the twin circuit and a second output for reinjecting a current, equal to the current originating from the first output, to a node of the main branch, comprising the at least one current source, of the processing circuit, the converter being fabricated on a substrate. - an input for the current to be converted; - an output for the converted voltage; - a current-to-voltage conversion resistance connected between the output and a reference potential, - a processing circuit configured to convey the input current (I modulated) from the input to the resistance comprising: + a voltage source; + a main branch comprising at least one transistor whose gate is connected to the voltage source and at least one current source connected in series with the transistor, the input being connected to the output via the transistor; + a voltage source; + a main branch comprising at least one transistor whose gate is connected to the voltage source and at least one current source connected in series with the transistor, the input being connected to the output via the transistor; - a twin circuit comprising: + a voltage source that is identical to the voltage source of the processing circuit; + a twin branch that is identical to the main branch of the processing circuit; + a voltage source that is identical to the voltage source of the processing circuit; + a twin branch that is identical to the main branch of the processing circuit; - a voltage follower that is connected at the input to the main branch of the processing circuit and connected at the output to the twin branch of the twin circuit, and - current reinjection means (51, 106) for reinjecting the current at the output of the follower into the main branch of the processing circuit;