mhurhangee/patent-ind-claim-en huggingface dataset:
A UF 6 transport and process container to store UF 6 enriched up to 20 percent by weight 235 U in amounts up to 1,500 kg U, comprising: a shell, comprising: an exterior surface/substrate; an interior surface/substrate; an integral heat exchanger positioned between the exterior and interior surfaces/substrates, the integral heat exchanger comprising: metal; and passage voids to pass heat transport fluid; an inner chamber formed by the shell; and a partition configuration positioned within the inner chamber and extending longitudinally along the length of the container, to form a plurality of individual compartments within the inner chamber to store the UF 6 . a shell, comprising: an exterior surface/substrate; an interior surface/substrate; an integral heat exchanger positioned between the exterior and interior surfaces/substrates, the integral heat exchanger comprising: metal; and passage voids to pass heat transport fluid; an exterior surface/substrate; an interior surface/substrate; an integral heat exchanger positioned between the exterior and interior surfaces/substrates, the integral heat exchanger comprising: metal; and passage voids to pass heat transport fluid; metal; and passage voids to pass heat transport fluid; an inner chamber formed by the shell; and a partition configuration positioned within the inner chamber and extending longitudinally along the length of the container, to form a plurality of individual compartments within the inner chamber to store the UF 6 .
Livestock feed wagon , comprising - a movable frame , - a feed container which is fitted on the frame for accommodating animal feed , in particular provided with feed-mixing means , - a movable arm construction having an operable gripper fitted thereto for grabbing an amount of animal feed , wherein the arm construction is configured in such a way that the arm construction can only pivot the gripper in one, substantially vertical, plane from a first position for grabbing animal feed next to the livestock feed wagon to a second position for releasing the animal feed above the feed container, characterised in that the livestock feed wagon furthermore comprises: - one or more drive means configured to drive the frame, the arm construction and the gripper, and in particular the gripper-displacement device, - a control for autonomously controlling the one or more drive means, and - a, in particular optical, 3D device for recording a spatial image comprising distance information, fitted on an end of the arm construction which is situated near the gripper or on the gripper, wherein the 3D device is configured to perform an analysis of a surface of a pile of feed which is situated in front of the 3D device, and in which the control controls one or more drive means for driving the gripper-displacement device and/or the gripper on the basis of the analysis. - a movable frame , - a feed container which is fitted on the frame for accommodating animal feed , in particular provided with feed-mixing means , - a movable arm construction having an operable gripper fitted thereto for grabbing an amount of animal feed , - one or more drive means configured to drive the frame, the arm construction and the gripper, and in particular the gripper-displacement device, - a control for autonomously controlling the one or more drive means, and - a, in particular optical, 3D device for recording a spatial image comprising distance information, fitted on an end of the arm construction which is situated near the gripper or on the gripper, wherein the 3D device is configured to perform an analysis of a surface of a pile of feed which is situated in front of the 3D device, and in which the control controls one or more drive means for driving the gripper-displacement device and/or the gripper on the basis of the analysis.
A method of monitoring a vehicle for security, the method comprising: determining when a trigger event occurs to the vehicle based on a first input from a first sensor being a low power sensor; activating a second sensor of the vehicle when the trigger event has occurred; determining, at an electronic processor, whether a potential security threat representing an alarm event has occurred based on a second input from the second sensor ; generating a notification indicative of occurrence of the alarm event when the alarm event has occurred; generating a record of activity of the area local to the vehicle with the second sensor when the trigger event occurs and until the second sensor is deactivated; and deactivating the second sensor of the vehicle after a predetermined amount of time when no alarm event has occurred. determining when a trigger event occurs to the vehicle based on a first input from a first sensor being a low power sensor; activating a second sensor of the vehicle when the trigger event has occurred; determining, at an electronic processor, whether a potential security threat representing an alarm event has occurred based on a second input from the second sensor ; generating a notification indicative of occurrence of the alarm event when the alarm event has occurred; generating a record of activity of the area local to the vehicle with the second sensor when the trigger event occurs and until the second sensor is deactivated; and deactivating the second sensor of the vehicle after a predetermined amount of time when no alarm event has occurred.
A turbomachine assembly comprising: - a shaft , - a radial gas expander supported on the shaft between at least one first bearing and at least a second bearing , - a compressor supported on the shaft in overhung position adjacent to one or the other of said first and second bearings , - said radial gas expander including a plurality of movable guide vanes (5a,b). - a shaft , - a radial gas expander supported on the shaft between at least one first bearing and at least a second bearing , - a compressor supported on the shaft in overhung position adjacent to one or the other of said first and second bearings , - said radial gas expander including a plurality of movable guide vanes (5a,b).
A micromechanical resonator comprising a resonator element having a length ( l 1 ) and a width ( w 1 ) that is perpendicular to the length, wherein the resonator element comprises a first layer structure that comprises a base layer made of a semiconductor material, the length of the resonator element extends along a crystalline direction of the semiconductor material, the resonator element has a length-to-width aspect ratio in a range of 1,8 to 2,2. the resonator element is suspended to a support structure with two or more anchors , characterized in that each of the two or more anchors is attached to: a) a first location at a shorter, widthwise side of the resonator element, wherein the first location divides the width of the resonator element into a larger portion ( w 3 ) and a smaller portion ( w 2 ) such that a ratio of said smaller portion ( w 2 ) to the whole width ( w 1 ) is in a range of 0,10 to 0,28 or b) a second location at a longer, lengthwise side of the resonator, wherein the second location divides the length of the resonator element into a larger portion ( l 3 ) and a smaller portion ( l 2 ) such that a ratio of said smaller portion ( l 2 ) to the whole length ( l 1 ) is in a range of 0,36 to 0,50. a) a first location at a shorter, widthwise side of the resonator element, wherein the first location divides the width of the resonator element into a larger portion ( w 3 ) and a smaller portion ( w 2 ) such that a ratio of said smaller portion ( w 2 ) to the whole width ( w 1 ) is in a range of 0,10 to 0,28 or b) a second location at a longer, lengthwise side of the resonator, wherein the second location divides the length of the resonator element into a larger portion ( l 3 ) and a smaller portion ( l 2 ) such that a ratio of said smaller portion ( l 2 ) to the whole length ( l 1 ) is in a range of 0,36 to 0,50.
A production system (S) comprising: an industrial device being self-movable; and a preparation control unit configured to control the industrial device to prepare for a next job before the industrial device arrives at a next location; and a job control unit configured to control the industrial device to perform the next job when the industrial device arrives at the next location and a preparation for the next job is completed; characterized by the production system further comprising: a first preparation control unit configured to control the industrial device to prepare for the next job while the industrial device is moving towards the next location; and/or a third preparation control unit configured to control the industrial device to prepare for the next job when a movement to the next location is instructed. an industrial device being self-movable; and a preparation control unit configured to control the industrial device to prepare for a next job before the industrial device arrives at a next location; and a job control unit configured to control the industrial device to perform the next job when the industrial device arrives at the next location and a preparation for the next job is completed; characterized by the production system further comprising: a first preparation control unit configured to control the industrial device to prepare for the next job while the industrial device is moving towards the next location; and/or a third preparation control unit configured to control the industrial device to prepare for the next job when a movement to the next location is instructed. a first preparation control unit configured to control the industrial device to prepare for the next job while the industrial device is moving towards the next location; and/or a third preparation control unit configured to control the industrial device to prepare for the next job when a movement to the next location is instructed.
A method of wireless communication performed by a user equipment, comprising: receiving, from the network, an indication of a user priority level; determining a transmission time interval, TTI, corresponding to the user priority level, the TTI defining an interval for monitoring for a scheduling indicator, wherein the scheduling indicator is one of a plurality of scheduling indicators each mapped to one of a plurality of user priority levels; and each scheduling indicator is indicative of whether a grant may be available for a user assigned to a respective one of the plurality of user priority levels; and monitoring for the scheduling indicator according to the determined transmission time interval. receiving, from the network, an indication of a user priority level; determining a transmission time interval, TTI, corresponding to the user priority level, the TTI defining an interval for monitoring for a scheduling indicator, wherein the scheduling indicator is one of a plurality of scheduling indicators each mapped to one of a plurality of user priority levels; and each scheduling indicator is indicative of whether a grant may be available for a user assigned to a respective one of the plurality of user priority levels; and monitoring for the scheduling indicator according to the determined transmission time interval.
Marine vessel waste treatment installation, which installation is intended for treatment of dry waste and wet waste, and which installation comprises at least one waste receiving unit including a first waste receiving unit for dry waste and a second waste receiving unit for wet waste, at least one waste transport means , and at least one incinerator unit provided with an inlet , characterized in that the at least one waste transport means includes dual waste-feeding screws arranged to receive dry waste from the first waste receiving unit by means of a dry waste chute and wet waste from the second waste receiving unit by means of a wet waste chute , the dual waste-feeding screws being configured to mix the dry waste and the wet waste, and in that the dual waste-feeding screws are connected to the inlet of the incinerator unit in order to feed the mixed dry waste and wet waste into the inlet of the incinerator unit and in that the incinerator unit comprises a moving grate arranged inside the incinerator unit , after the inlet of the incinerator unit and downstream of the dual waste-feeding screws .
Method for controlling an electric cooker, which comprises an inner container , a heating element and, installed inside said inner container , a steam basket ; said heating element heats said inner container ; the lower portion of said steam basket comprises an opening mechanism oriented towards the bottom wall and/or located in the extension of the lateral wall of the inner container ; said steam basket comprises a permeable zone and a filling chamber located above this permeable zone; the opening space surrounded by the opening mechanism is connected to the filling chamber through said permeable zone; the upper portion of said steam basket is connected to the opening of the inner container ; the method for controlling said electric cooker characterised by the following steps: - a simultaneous step of rinsing and cooking the rice in water, wherein the heating element continuously heats the inner container , and, once a first programmed period t1 of heating has ended, the heating element stops operating, this during a second programmed period t2, the step of rinsing and cooking the rice in water is repeated N1 times. - A step of steam cooking the rice, during which the heating element continuously heats the inner container , and, after a third programmed period t3 of heating has ended, the heating element stops operating, this during a fourth programmed period t4, the step of steam cooking the rice is repeated N2 times. - a simultaneous step of rinsing and cooking the rice in water, wherein the heating element continuously heats the inner container , and, once a first programmed period t1 of heating has ended, the heating element stops operating, this during a second programmed period t2, the step of rinsing and cooking the rice in water is repeated N1 times. - A step of steam cooking the rice, during which the heating element continuously heats the inner container , and, after a third programmed period t3 of heating has ended, the heating element stops operating, this during a fourth programmed period t4, the step of steam cooking the rice is repeated N2 times.
A compound selected from the group consisting of (R)-8-bromo-6-(2-fluorophenyl)-4-methyl-4H-benzo[f]imidazo[1,5-a] diazepine-3-carboxylic acid; (R)-8-cyclopropyl-6-(2-fluorophenyl)-4-methyl-4H-benzo[f]imidazo[1,5-a] diazepine-3-carboxylic acid; (R)-8-chloro-6-(2-fluorophenyl)-4-methyl-4H-benzo[f]imidazo[1,5-a] diazepine-3-carboxylic acid; and (R)-8-bromo-4-methyl-6-(pyridin-2-yl)-4H-benzo[f]imidazo[1,5-a] diazepine-3-carboxylic acid; or a pharmaceutically acceptable salt thereof. (R)-8-bromo-6-(2-fluorophenyl)-4-methyl-4H-benzo[f]imidazo[1,5-a] diazepine-3-carboxylic acid; (R)-8-cyclopropyl-6-(2-fluorophenyl)-4-methyl-4H-benzo[f]imidazo[1,5-a] diazepine-3-carboxylic acid; (R)-8-chloro-6-(2-fluorophenyl)-4-methyl-4H-benzo[f]imidazo[1,5-a] diazepine-3-carboxylic acid; and (R)-8-bromo-4-methyl-6-(pyridin-2-yl)-4H-benzo[f]imidazo[1,5-a] diazepine-3-carboxylic acid;
A composition, comprising: a matrix component comprising a graphene oxide (GO) and hyaluronic acid (HA) conjugate (GO-HA), wherein the GO and HA are covalently linked via a linker; 3,5,7,8-tetrahydro-2-[4-(trifluoromethyl)phenyl]-4 H -thiopyrano[4,3-d]pyrimidin-4-one (XAV939); and water. a matrix component comprising a graphene oxide (GO) and hyaluronic acid (HA) conjugate (GO-HA), wherein the GO and HA are covalently linked via a linker; 3,5,7,8-tetrahydro-2-[4-(trifluoromethyl)phenyl]-4 H -thiopyrano[4,3-d]pyrimidin-4-one (XAV939); and water.
A feeding system for feeding groups of rod-like elements for a tobacco industry machine, wherein the group comprises at least two rod-like elements arranged coaxially next to each other, the feeding system comprising: - a container for the rod-like elements ; - a single element feeder for feeding individual rod-like elements from the container and comprising: ∘ a single-layer duct and ∘ an outlet formed by a feeding groove of a feeding wheel and a circumferential surface of a shoving away wheel ; - an intermediate storage for transferring the rod-like elements from the single element feeder along a storage duct to an elements group feeder , wherein an outlet of the storage duct has a tilting track forming a recess for stopping the rod-like elements ; - wherein the elements group feeder comprises: ∘ a transporting duct connected to the storage duct ; and ∘ a transporter comprising shovels , wherein the shovels are configured to transport the groups of the rod-like elements one after the other along the transporting duct from the storage duct to an outlet duct ; - and a pushing unit comprising a reciprocally movable pusher , configured to eject the group of the rod-like elements from the outlet duct . - a container for the rod-like elements ; - a single element feeder for feeding individual rod-like elements from the container and comprising: ∘ a single-layer duct and ∘ an outlet formed by a feeding groove of a feeding wheel and a circumferential surface of a shoving away wheel ; ∘ a single-layer duct and ∘ an outlet formed by a feeding groove of a feeding wheel and a circumferential surface of a shoving away wheel ; - an intermediate storage for transferring the rod-like elements from the single element feeder along a storage duct to an elements group feeder , wherein an outlet of the storage duct has a tilting track forming a recess for stopping the rod-like elements ; - wherein the elements group feeder comprises: ∘ a transporting duct connected to the storage duct ; and ∘ a transporter comprising shovels , wherein the shovels are configured to transport the groups of the rod-like elements one after the other along the transporting duct from the storage duct to an outlet duct ; ∘ a transporting duct connected to the storage duct ; and ∘ a transporter comprising shovels , wherein the shovels are configured to transport the groups of the rod-like elements one after the other along the transporting duct from the storage duct to an outlet duct ; - and a pushing unit comprising a reciprocally movable pusher , configured to eject the group of the rod-like elements from the outlet duct .
A composite member comprising: a substrate formed of a composite material containing equal to or greater than 40 volume% and equal to or less than 85 volume% of a plurality of diamond grains , and a metal phase that bonds the diamond grains ; and a coating layer made of metal and formed on the substantially entire surface of the substrate , wherein the surface of the substrate includes a surface of the metal phase , and a protrusion formed of a part of the diamond grains and protruding from the surface of the metal phase , in a plan view, the coating layer includes a metal coating portion coating the surface of the metal phase , and a grain coating portion coating the protrusion and not coating the surface of the metal phase, a ratio of a thickness (t 2 ) of the grain coating portion to a thickness (t 3 ) of the metal coating portion is greater than zero and equal to or less than 0.80, the ratio measured using the method described in the description, the coating layer has a surface roughness as an arithmetic mean roughness Ra of less than 2.0 μm measured using a 50x-magnification objective lens of a laser microscope, metal that forms the metal phase is silver or a silver alloy, and the metal that forms the coating layer is a nickel alloy containing phosphorus. a substrate formed of a composite material containing equal to or greater than 40 volume% and equal to or less than 85 volume% of a plurality of diamond grains , and a metal phase that bonds the diamond grains ; and equal to or greater than 40 volume% and equal to or less than 85 volume% of a plurality of diamond grains , and a metal phase that bonds the diamond grains ; and a coating layer made of metal and formed on the substantially entire surface of the substrate , wherein the surface of the substrate includes a surface of the metal phase , and a protrusion formed of a part of the diamond grains and protruding from the surface of the metal phase , a surface of the metal phase , and a protrusion formed of a part of the diamond grains and protruding from the surface of the metal phase , in a plan view, the coating layer includes a metal coating portion coating the surface of the metal phase , and a grain coating portion coating the protrusion and not coating the surface of the metal phase, a metal coating portion coating the surface of the metal phase , and a grain coating portion coating the protrusion and not coating the surface of the metal phase, a ratio of a thickness (t 2 ) of the grain coating portion to a thickness (t 3 ) of the metal coating portion is greater than zero and equal to or less than 0.80, the ratio measured using the method described in the description, the coating layer has a surface roughness as an arithmetic mean roughness Ra of less than 2.0 μm measured using a 50x-magnification objective lens of a laser microscope, metal that forms the metal phase is silver or a silver alloy, and the metal that forms the coating layer is a nickel alloy containing phosphorus.
A computer-implemented method in a computer modeling environment having computer assisted design elements, the method comprising: detecting , by a runtime engine running on one or more processors , a first variable in a code block, wherein the first variable contains a collection of design elements; determining , by the runtime engine, a size of the collection of design elements in the first variable based on the number of the design elements contained within the first variable; creating , by the runtime engine, an implicit index based on the size of the collection of design elements, wherein the implicit index includes a current index and the size of the collection of design elements; automatically iterating , by the runtime engine, the code block according to the implicit index; and outputting, by the runtime engine, a result of iterating the code block. detecting , by a runtime engine running on one or more processors , a first variable in a code block, wherein the first variable contains a collection of design elements; determining , by the runtime engine, a size of the collection of design elements in the first variable based on the number of the design elements contained within the first variable; creating , by the runtime engine, an implicit index based on the size of the collection of design elements, wherein the implicit index includes a current index and the size of the collection of design elements; automatically iterating , by the runtime engine, the code block according to the implicit index; and outputting, by the runtime engine, a result of iterating the code block.