mhurhangee/ep-ind-claims huggingface dataset:
A spacecraft attitude control module comprising: - a 3-dimensional rectangular support frame defined by level rib portions arranged in a ground plane and in an upper plane, respectively, and upstanding rib portions interconnecting the level rib portions of the ground plane to the level rib portions of the upper plane, - an attitude control assembly fitted within the confines of the support frame, and comprising: ∘ a reference structure comprising a platform that is fixed to the support frame, ∘ a flywheel and a flywheel support structure (15, 18, 19, 26) mounted to the platform, wherein the flywheel support structure is oriented along a first axis that is perpendicular with respect to the platform, ∘ a flywheel motor for actuating the rotation of the flywheel relative to the flywheel support structure about a second axis that is essentially perpendicular to the first axis, characterized in that the flywheel comprises a hollow central portion, and wherein the flywheel motor is mounted inside the hollow central portion and wherein the platform is a rectangular platform attached to a pair of mutually parallel profiles (4a,4b), the ends of each profile being fixed respectively to a level rib portion arranged in the ground plane and to an upstanding rib portion of the support frame, so that the profiles (4a,4b) and the platform are in a slanted position relative to the ground plane of the support frame. - a 3-dimensional rectangular support frame defined by level rib portions arranged in a ground plane and in an upper plane, respectively, and upstanding rib portions interconnecting the level rib portions of the ground plane to the level rib portions of the upper plane, - an attitude control assembly fitted within the confines of the support frame, and comprising: ∘ a reference structure comprising a platform that is fixed to the support frame, ∘ a flywheel and a flywheel support structure (15, 18, 19, 26) mounted to the platform, wherein the flywheel support structure is oriented along a first axis that is perpendicular with respect to the platform, ∘ a flywheel motor for actuating the rotation of the flywheel relative to the flywheel support structure about a second axis that is essentially perpendicular to the first axis, ∘ a reference structure comprising a platform that is fixed to the support frame, ∘ a flywheel and a flywheel support structure (15, 18, 19, 26) mounted to the platform, wherein the flywheel support structure is oriented along a first axis that is perpendicular with respect to the platform, ∘ a flywheel motor for actuating the rotation of the flywheel relative to the flywheel support structure about a second axis that is essentially perpendicular to the first axis,
A method implemented by a network node (104-118, 1500) supporting fast reroute, FRR, in a Bit Index Explicit Replication, BIER, domain, comprising: obtaining, by a control plane (304, 404) of the network node (104-118, 1500), an internet protocol, IP, loop-free alternate, LFA, from a forwarding information base (306, 314, 406, 412), FIB, or a routing information base, RIB, through a first interface (Ib, Ib'); using, by the control plane (304, 404) of the network node (104-118, 1500), the IP LFA to build an enhanced bit index forwarding table (316, 414), BIFTe, when the IP LFA is an expected type, the expected type comprises a basic LFA or a topology independent, TI, LFA; accessing, by the control plane (304, 404) of the network node (104-118, 1500), a BIER network topology in a link state database (302, 310, 402, 410), LSDB, through a second interface (Ia, Ia') different from the first interface (Ib, Ib'), computing an LFA of the expected type, and using the LFA to build the BIFTe (316, 414) when the IP LFA is not of the expected type; updating, by the control plane (304, 404) of the network node (104-118, 1500), the BIFTe (316, 414) in a data plane (308, 408) of the network node (104-118, 1500) through a third interface (Ic, Ic') different from the first interface (Ib, Ib') and the second interface (Ia, Ia'); and forwarding, by the data plane (308, 408) of the network node (104-118, 1500), BIER packets using the BIFTe (316, 414) to get around a failure in the BIER domain. obtaining, by a control plane (304, 404) of the network node (104-118, 1500), an internet protocol, IP, loop-free alternate, LFA, from a forwarding information base (306, 314, 406, 412), FIB, or a routing information base, RIB, through a first interface (Ib, Ib'); using, by the control plane (304, 404) of the network node (104-118, 1500), the IP LFA to build an enhanced bit index forwarding table (316, 414), BIFTe, when the IP LFA is an expected type, the expected type comprises a basic LFA or a topology independent, TI, LFA; accessing, by the control plane (304, 404) of the network node (104-118, 1500), a BIER network topology in a link state database (302, 310, 402, 410), LSDB, through a second interface (Ia, Ia') different from the first interface (Ib, Ib'), computing an LFA of the expected type, and using the LFA to build the BIFTe (316, 414) when the IP LFA is not of the expected type; updating, by the control plane (304, 404) of the network node (104-118, 1500), the BIFTe (316, 414) in a data plane (308, 408) of the network node (104-118, 1500) through a third interface (Ic, Ic') different from the first interface (Ib, Ib') and the second interface (Ia, Ia'); and forwarding, by the data plane (308, 408) of the network node (104-118, 1500), BIER packets using the BIFTe (316, 414) to get around a failure in the BIER domain.
A method for producing a fiber-reinforced plastic from a prepreg, comprising: executing a first heating to retain the prepreg in a first atmosphere, a temperature of the first atmosphere being above a room temperature and not higher than 100 degrees C; after executing the first heating, executing a second heating to retain the prepreg in a second atmosphere, a temperature of the second atmosphere being not lower than 150 degrees C and lower than a curing temperature of the prepreg; and after executing the second heating, executing a third heating to retain the prepreg in a third atmosphere, a temperature of the third atmosphere being higher than the curing temperature, wherein at least the first atmosphere and the second atmosphere are under reduced pressure below an atmospheric pressure, wherein the method is further comprising: before executing the first heating, putting the prepreg in between porous films, further putting the prepreg along with the films in between gas-permeable bodies, and enclosing the prepreg along with the gas-permeable bodies and the films with a gas-impermeable bag; and depressurizing an interior of the bag, whereby the first atmosphere and the second atmosphere are made to be the reduced pressure below the atmospheric pressure. executing a first heating to retain the prepreg in a first atmosphere, a temperature of the first atmosphere being above a room temperature and not higher than 100 degrees C; after executing the first heating, executing a second heating to retain the prepreg in a second atmosphere, a temperature of the second atmosphere being not lower than 150 degrees C and lower than a curing temperature of the prepreg; and after executing the second heating, executing a third heating to retain the prepreg in a third atmosphere, a temperature of the third atmosphere being higher than the curing temperature, wherein at least the first atmosphere and the second atmosphere are under reduced pressure below an atmospheric pressure, wherein the method is further comprising: before executing the first heating, putting the prepreg in between porous films, further putting the prepreg along with the films in between gas-permeable bodies, and enclosing the prepreg along with the gas-permeable bodies and the films with a gas-impermeable bag; and depressurizing an interior of the bag, whereby the first atmosphere and the second atmosphere are made to be the reduced pressure below the atmospheric pressure. before executing the first heating, putting the prepreg in between porous films, further putting the prepreg along with the films in between gas-permeable bodies, and enclosing the prepreg along with the gas-permeable bodies and the films with a gas-impermeable bag; and depressurizing an interior of the bag, whereby the first atmosphere and the second atmosphere are made to be the reduced pressure below the atmospheric pressure.
A method for reducing at least one graphene oxide in situ within a composite component comprising at least one polymer matrix, characterized in that it includes at least the following steps: a) A composite constituted by at least one polymer and graphene oxide GO is introduced into a reactor subjected to a temperature value T and a pressure value P adapted to set a fluid in supercritical or subcritical conditions for a given time period, the temperature T being adapted so as not to degrade the polymer, b) The reactor is cooled down and the obtained product R constituted by at least one polymer matrix and reduced graphene oxide rGO is retrieved, said method is characterized in that: - carbon dioxide, a mixture of carbon dioxide and hydrogen or nitrogen, taken alone or in a mixture, is used as a supercritical fluid or as a subcritical fluid, - the temperature value T is comprised within the interval [100-180°C] and the pressure value P is selected in the interval [20-25 MPa]. a) A composite constituted by at least one polymer and graphene oxide GO is introduced into a reactor subjected to a temperature value T and a pressure value P adapted to set a fluid in supercritical or subcritical conditions for a given time period, the temperature T being adapted so as not to degrade the polymer, b) The reactor is cooled down and the obtained product R constituted by at least one polymer matrix and reduced graphene oxide rGO is retrieved, - carbon dioxide, a mixture of carbon dioxide and hydrogen or nitrogen, taken alone or in a mixture, is used as a supercritical fluid or as a subcritical fluid, - the temperature value T is comprised within the interval [100-180°C] and the pressure value P is selected in the interval [20-25 MPa].
A surface modifier comprising an organosilicone compound of formula and/or: wherein M is a group F-(CF 2) q -(OC 3 F 6) m -(OC 2 F 4) n -(OCF 2) o -(CH 2) p -X-X" wherein X is oxygen or a bivalent organic spacer selected from an amide, ester and ether group; X" is a bivalent organosilicone spacer of the formula wherein R 2 each independently is optionally substituted linear or branched C 1-22 -alkyl or optionally substituted C 6-20 -aryl, R 3 each independently is optionally substituted linear or branched C 1-22 -alkylene, and b is an integer of 1-100; m, n, and o are independently integers of 0-200; p is 0, 1 or 2; and q is an integer of 1-3; R 1 is a linear or branched C 1-22 -hydrocarbon group; X' is a hydrolyzable group selected from alkoxy, (alkoxy)alkoxy, acyloxy, alkenyloxy, iminoxy, substituted amino, amido, substituted aminoxy and halogen; a is an integer of 0-2; and z is an integer of 0-10 when a is 0 or 1. M is a group F-(CF 2) q -(OC 3 F 6) m -(OC 2 F 4) n -(OCF 2) o -(CH 2) p -X-X" wherein X is oxygen or a bivalent organic spacer selected from an amide, ester and ether group; X" is a bivalent organosilicone spacer of the formula wherein R 2 each independently is optionally substituted linear or branched C 1-22 -alkyl or optionally substituted C 6-20 -aryl, R 3 each independently is optionally substituted linear or branched C 1-22 -alkylene, and b is an integer of 1-100; m, n, and o are independently integers of 0-200; p is 0, 1 or 2; and q is an integer of 1-3; X is oxygen or a bivalent organic spacer selected from an amide, ester and ether group; X" is a bivalent organosilicone spacer of the formula wherein R 2 each independently is optionally substituted linear or branched C 1-22 -alkyl or optionally substituted C 6-20 -aryl, R 3 each independently is optionally substituted linear or branched C 1-22 -alkylene, and b is an integer of 1-100; R 2 each independently is optionally substituted linear or branched C 1-22 -alkyl or optionally substituted C 6-20 -aryl, R 3 each independently is optionally substituted linear or branched C 1-22 -alkylene, and b is an integer of 1-100; m, n, and o are independently integers of 0-200; p is 0, 1 or 2; and q is an integer of 1-3; R 1 is a linear or branched C 1-22 -hydrocarbon group; X' is a hydrolyzable group selected from alkoxy, (alkoxy)alkoxy, acyloxy, alkenyloxy, iminoxy, substituted amino, amido, substituted aminoxy and halogen; a is an integer of 0-2; and z is an integer of 0-10 when a is 0 or 1.
A thruster system comprising: a canister on which a thruster is installed, and which is movable upward and downward in a hull; a ballast tank which is installed in the canister and filled with water in order to offset the buoyancy that is applied to the canister when the canister is moved downward from the water surface; wherein the canister is moved, in the hull, along a trunk which is a part of the hull, downward so that the thruster protrudes from a lower portion of the hull, or upward in order to allow the vessel or the marine structure to sail, in a transit mode, or in order to do maintenance of the thruster, characterized in that it further comprises a wire controller which controls a wire connected with the canister and enables the upward and downward movement of the canister; and in that the ballast tank is installed in a height direction of the canister, and so that an amount of water stored in the ballast tank is increased as the canister is moved downward from the water surface and is decreased as the canister is moved upward. a canister on which a thruster is installed, and which is movable upward and downward in a hull; a ballast tank which is installed in the canister and filled with water in order to offset the buoyancy that is applied to the canister when the canister is moved downward from the water surface; wherein the canister is moved, in the hull, along a trunk which is a part of the hull, downward so that the thruster protrudes from a lower portion of the hull, or upward in order to allow the vessel or the marine structure to sail, in a transit mode, or in order to do maintenance of the thruster, characterized in that it further comprises a wire controller which controls a wire connected with the canister and enables the upward and downward movement of the canister; and in that the ballast tank is installed in a height direction of the canister, and so that an amount of water stored in the ballast tank is increased as the canister is moved downward from the water surface and is decreased as the canister is moved upward.
An actuator control device for use in steering of a vehicle, the actuator control device comprising: a turning control value calculation unit configured to calculate a first assistance control value that controls an actuator configured to turn a steered wheel (8L, 8R) on a basis of an operation state amount by a driver with respect to a steering mechanism of the vehicle; a target value setting unit configured to set a target value of a state amount indicating a traveling direction of the vehicle on a basis of a surrounding environment of the vehicle; a target value control unit (41, 45-47, 80, 82) configured to calculate a second assistance control value that controls the actuator by integral control so that actual the state amount approaches the target value; an adder configured to calculate a sum of the first assistance control value and the second assistance control value as a drive current command value for the actuator; and an integral suppression unit (42-44, 73) configured to suppress an increase in a first integral value calculated in the integral control according to a second integral value calculated according to the operation state amount, wherein the integral suppression unit (42-44, 73) integrates a variable that changes according to the operation state amount to calculate the second integral value. a turning control value calculation unit configured to calculate a first assistance control value that controls an actuator configured to turn a steered wheel (8L, 8R) on a basis of an operation state amount by a driver with respect to a steering mechanism of the vehicle; a target value setting unit configured to set a target value of a state amount indicating a traveling direction of the vehicle on a basis of a surrounding environment of the vehicle; a target value control unit (41, 45-47, 80, 82) configured to calculate a second assistance control value that controls the actuator by integral control so that actual the state amount approaches the target value; an adder configured to calculate a sum of the first assistance control value and the second assistance control value as a drive current command value for the actuator; and an integral suppression unit (42-44, 73) configured to suppress an increase in a first integral value calculated in the integral control according to a second integral value calculated according to the operation state amount, wherein the integral suppression unit (42-44, 73) integrates a variable that changes according to the operation state amount to calculate the second integral value.
A lubricating oil composition comprising a base oil and an amine-based antioxidant, wherein: the component comprises a phenyl-naphthylamine, an alkylphenyl-naphthylamine and a di(alkylphenyl)amine, the content of the component is from 2.0 to 10.0% by mass relative to 100% by mass of the total amount of the component, the content of the component is from 40.0 to 90.0% by mass relative to 100% by mass of the total amount of the component, and the content of the component is from 8.0 to 50.0% by mass relative to 100% by mass of the total amount of the component, wherein the content of the component is from 0.01 to 10% by mass based on the total amount of the lubricating oil composition. the component comprises a phenyl-naphthylamine, an alkylphenyl-naphthylamine and a di(alkylphenyl)amine, the content of the component is from 2.0 to 10.0% by mass relative to 100% by mass of the total amount of the component, the content of the component is from 40.0 to 90.0% by mass relative to 100% by mass of the total amount of the component, and the content of the component is from 8.0 to 50.0% by mass relative to 100% by mass of the total amount of the component, wherein the content of the component is from 0.01 to 10% by mass based on the total amount of the lubricating oil composition.
A display device comprising: a display unit configured to display visual information; a sensor unit configured to detect an input signal and to transmit a detected result to a processor; and the processor configured to control the display unit and the sensor unit, and configured to display a base alarm that corresponds to an alarm preset in the display device, characterized in that the processor is further configured to: detect a first gesture input on the displayed base alarm, determine a time interval of additional alarms based on an end position of the detected first gesture input, detect a second gesture input, determine the number of the additional alarms based on a length of the detected second gesture input, display at least one additional alarm according to the determined time interval and the determined number of the additional alarms, wherein the base alarm and the additional alarms are combined as a group alarm, and switch off all the alarms included in the group alarm when a time of the at least one alarm of the group alarm has come and a fourth gesture input to at least one alarm of the group alarm is detected. a display unit configured to display visual information; a sensor unit configured to detect an input signal and to transmit a detected result to a processor; and the processor configured to control the display unit and the sensor unit, and configured to display a base alarm that corresponds to an alarm preset in the display device, characterized in that the processor is further configured to: detect a first gesture input on the displayed base alarm, determine a time interval of additional alarms based on an end position of the detected first gesture input, detect a second gesture input, determine the number of the additional alarms based on a length of the detected second gesture input, display at least one additional alarm according to the determined time interval and the determined number of the additional alarms, wherein the base alarm and the additional alarms are combined as a group alarm, and switch off all the alarms included in the group alarm when a time of the at least one alarm of the group alarm has come and a fourth gesture input to at least one alarm of the group alarm is detected. detect a first gesture input on the displayed base alarm, determine a time interval of additional alarms based on an end position of the detected first gesture input, detect a second gesture input, determine the number of the additional alarms based on a length of the detected second gesture input, display at least one additional alarm according to the determined time interval and the determined number of the additional alarms, wherein the base alarm and the additional alarms are combined as a group alarm, and switch off all the alarms included in the group alarm when a time of the at least one alarm of the group alarm has come and a fourth gesture input to at least one alarm of the group alarm is detected.
Shut-off valve with a housing, a valve seat arranged in the housing and a shut-off disc which activates the valve seat and is mounted on both sides in the housing by means of a bearing shaft (3a, 3b) so as to be rotatable about an axis of rotation, which is arranged perpendicularly to the longitudinal axis of the housing, between an open position and a blocking position, characterized in that the bearing shaft is formed by bearing shaft stubs (3a, 3b) which are integrally formed on the shut-off disc on both sides, and the housing is designed as an integral and undivided housing, wherein the bearing shaft stubs (3a, 3b) are respectively mounted in two bearing half shells (5a, 5b), wherein at least one first bearing half shell for the respective bearing shaft stub (3a, 3b) is formed on a sealing ring which is provided with the valve seat, which is activated by the shut-off disc, and wherein the shut-off disc and the sealing ring can be fitted from an end-side flange side of the housing.
Shopping cart with display or advertising surface, wherein an advertising surface unit (2, 6) having a display surface is permanently present on the handle of the shopping cart, wherein an attachment option is present on the advertising surface unit (2, 6) to which an electronic purchasing assistant (3, 8) is attachable and this attachment option lies outside of the display surface, characterized in that when the purchasing assistant (3, 8) is attached to the advertising surface unit (2, 6), an electrical connection is established via which energy can be transmitted for charging an energy storage device mounted in the advertising surface unit (2, 6).