mhurhangee/ep-ind-claims huggingface dataset:
A non-volatile storage system, comprising: a first NAND string in communication with a shared bit line (BL0, BL1), the first NAND string includes a first channel; a second NAND string in communication with the shared bit line, the second NAND string includes a second channel; and one or more managing circuits in communication with the first NAND string and the second NAND string, the system characterised in that the one or more managing circuits precharge the first channel to a first voltage at a first point in time (T 1), the precharging of the first channel boosts the second channel to a first boosted voltage less than the first voltage, the one or more managing circuits precharge the second channel to the first voltage at a second point in time (T 2) subsequent to the first point in time, the precharging of the second channel boosts the first channel to a second voltage greater than the first voltage, the one or more managing circuits set the shared bit line to a programming voltage at a third point in time (T 3) subsequent to the second point in time. a first NAND string in communication with a shared bit line (BL0, BL1), the first NAND string includes a first channel; a second NAND string in communication with the shared bit line, the second NAND string includes a second channel; and one or more managing circuits in communication with the first NAND string and the second NAND string, the system characterised in that the one or more managing circuits precharge the first channel to a first voltage at a first point in time (T 1), the precharging of the first channel boosts the second channel to a first boosted voltage less than the first voltage, the one or more managing circuits precharge the second channel to the first voltage at a second point in time (T 2) subsequent to the first point in time, the precharging of the second channel boosts the first channel to a second voltage greater than the first voltage, the one or more managing circuits set the shared bit line to a programming voltage at a third point in time (T 3) subsequent to the second point in time.
A soft anchor (100, 200, 100a, 200a) for fixation of soft tissue to bone comprising: an anchor body with a cannulation and two ends (10a, 10b), the anchor body_ consisting essentially of a flexible material adapted to be compressed from a first, non-compressed position to a second, compressed position; a flexible strand (11, 40) attached to the anchor body, the flexible strand (11, 40) having a first end and a second end, the flexible strand (11, 40) extending through the cannulation of the anchor body and with the first end exiting a first opening in the anchor body and with the second end exiting a second opening in the anchor body, so that the first end terminates in an eyelet and a portion of the second end has a shuttling device attached thereto. an anchor body with a cannulation and two ends (10a, 10b), the anchor body_ consisting essentially of a flexible material adapted to be compressed from a first, non-compressed position to a second, compressed position; a flexible strand (11, 40) attached to the anchor body, the flexible strand (11, 40) having a first end and a second end, the flexible strand (11, 40) extending through the cannulation of the anchor body and with the first end exiting a first opening in the anchor body and with the second end exiting a second opening in the anchor body, so that the first end terminates in an eyelet and a portion of the second end has a shuttling device attached thereto.
A continuous production method of a water-absorbent resin which is a polymer having acrylic acid and /or a salt thereof as a principal component, comprising a polymerization step of an aqueous solution containing acrylic acid and/or a salt thereof, a drying step of the resultant water-containing gel-like polymer, a pulverization step of a dried substance, a classification step of a pulverized substance, and a surface cross-linking step of a classified substance, as needed, characterized in that: (a) the drying step and the pulverization step are connected by comprising a storage step and a transportation step; (b) dry substance holding time from completion time of the drying step to starting time of the pulverization step is set at 3 minutes or longer; (c) before the pulverization step, a classification step of the dried substance is further performed; (d) by each particle diameter of the dried substance classified, different dry substance holding time or different dried substance holding method is applied; and (e) as for the dried substance classified, a coarse particle after classification has a dried substance holding time longer as compared with a small particle. (a) the drying step and the pulverization step are connected by comprising a storage step and a transportation step; (b) dry substance holding time from completion time of the drying step to starting time of the pulverization step is set at 3 minutes or longer; (c) before the pulverization step, a classification step of the dried substance is further performed; (d) by each particle diameter of the dried substance classified, different dry substance holding time or different dried substance holding method is applied; and (e) as for the dried substance classified, a coarse particle after classification has a dried substance holding time longer as compared with a small particle.
A feed composition comprising: an animal feedstuff; and a spent bleaching earth component, wherein the spent bleaching earth component comprises spent bleaching earth and a lime (calcium carbonate) component, wherein the spent bleaching earth component includes an amount of spent bleaching earth at 95-92% by weight and an amount of lime (calcium carbonate) component at 5-8% by weight, and wherein the spent bleaching earth is from production of edible vegetable oil, and comprises 30-50% entrained edible oil and one or more of attapulgite, montmorillonite, Na-montmorillonite, Ca-montmorillonite, bentonite, Na-bentonite, Ca-bentonite, beidellite, nontronite, saponite, hectorite, or a combination of thereof. an animal feedstuff; and a spent bleaching earth component, wherein the spent bleaching earth component comprises spent bleaching earth and a lime (calcium carbonate) component, wherein the spent bleaching earth component includes an amount of spent bleaching earth at 95-92% by weight and an amount of lime (calcium carbonate) component at 5-8% by weight, and wherein the spent bleaching earth is from production of edible vegetable oil, and comprises 30-50% entrained edible oil and one or more of attapulgite, montmorillonite, Na-montmorillonite, Ca-montmorillonite, bentonite, Na-bentonite, Ca-bentonite, beidellite, nontronite, saponite, hectorite, or a combination of thereof.
A method for mapping quality of service, QoS, flows to data radio bearers, the method comprising: determining (507, 557), by a communication device, a cumulative data volume of a first QoS flow; and determining (509, 559), by the communication device, that the cumulative data volume of the first QoS flow meets a specified data threshold, and based thereon: mapping (511, 561), by the communication device, the first QoS flow to a first data radio bearer, where a maximum data volume of the first data radio bearer is less than a maximum data volume of the first QoS flow; and transmitting (513, 563), by the communication device, a packet of the first QoS flow over the first data radio bearer. determining (507, 557), by a communication device, a cumulative data volume of a first QoS flow; and determining (509, 559), by the communication device, that the cumulative data volume of the first QoS flow meets a specified data threshold, and based thereon: mapping (511, 561), by the communication device, the first QoS flow to a first data radio bearer, where a maximum data volume of the first data radio bearer is less than a maximum data volume of the first QoS flow; and transmitting (513, 563), by the communication device, a packet of the first QoS flow over the first data radio bearer. mapping (511, 561), by the communication device, the first QoS flow to a first data radio bearer, where a maximum data volume of the first data radio bearer is less than a maximum data volume of the first QoS flow; and transmitting (513, 563), by the communication device, a packet of the first QoS flow over the first data radio bearer.
A device for stacking beverage containers, for example a keg or barrel, the device comprising: a support surface for supporting a container; a first flange which juxtaposes an inner diameter of a bottom of the container; and a second flange adapted to juxtapose an inner diameter of a top of the container; an aperture (7, 17, 27) or central cavity, wherein the aperture or central cavity permits air to flow between the containers; characterised in that the support surface further comprises a third flange (16, 26, 36) positioned towards the outer edge of the support surface and adapted to fit around the external diameter of the container, wherein the combination of the first second and third (16, 26, 36) flanges act to prevent the container from sliding off the top of a second container when in a stacked position; and wherein the device further comprises a gripping surface. a support surface for supporting a container; a first flange which juxtaposes an inner diameter of a bottom of the container; and a second flange adapted to juxtapose an inner diameter of a top of the container; an aperture (7, 17, 27) or central cavity, wherein the aperture or central cavity permits air to flow between the containers; characterised in that the support surface further comprises a third flange (16, 26, 36) positioned towards the outer edge of the support surface and adapted to fit around the external diameter of the container, wherein the combination of the first second and third (16, 26, 36) flanges act to prevent the container from sliding off the top of a second container when in a stacked position; and wherein the device further comprises a gripping surface.
A cooling device with at least two cooling circuits (10a, 10b), which are respectively connected via a venting line (1a, 1b) and a filling line (2a, 2b) to a common equalizing vessel for coolant, characterized in that at least one of the filling lines is provided with an air-cooled heat exchanger, by means of which coolant is precooled before it enters the cooling circuit assigned to this filling line, wherein the air-cooled heat exchanger is designed as a first subregion of a coolant cooler, which is separated from a second subregion of the coolant cooler, wherein both the first and the second subregion (51, 52) have their own inlet (61, 62) and outlet (71, 72) for coolant.
A method of manufacturing a heat shield panel for a gas turbine engine, the method comprising: determining a plurality of layers to compose the heat shield panel having one or more cooling apertures with complex geometries; forming each of the plurality of layers into sheets, wherein each sheet is composed of patterned foil; forming each of the sheets into a three-dimensional slice of the heat shield panel, wherein forming each of the plurality of layers into sheets further comprises at least one of chemically etching each of the sheets, photochemically etching each of the sheets, stamping each of the sheets, laser cutting each of the sheets, water jet cutting each of the sheets, and wire or plunge electrical discharge machining each of the sheets, wherein features of each layer are etched into the sheets, the features including at least one of cooling apertures, quench holes, and an attachment mechanism; stacking each of the sheets to form a three-dimensional heat shield panel; and joining the sheets together; wherein the sheets are stacked onto a negative template of the heat shield panel; and wherein the complex geometries comprise at least one of a spiral passageway, a zig-zag passageway, a branching passageway, a passageway (309c, 309d) with two or more turns, and a passageway with a curvilinear side wall; wherein the negative template of the heat shield panel is configured to curve each of the sheets into a three-dimensional slice of the heat shield panel. determining a plurality of layers to compose the heat shield panel having one or more cooling apertures with complex geometries; forming each of the plurality of layers into sheets, wherein each sheet is composed of patterned foil; forming each of the sheets into a three-dimensional slice of the heat shield panel, wherein forming each of the plurality of layers into sheets further comprises at least one of chemically etching each of the sheets, photochemically etching each of the sheets, stamping each of the sheets, laser cutting each of the sheets, water jet cutting each of the sheets, and wire or plunge electrical discharge machining each of the sheets, wherein features of each layer are etched into the sheets, the features including at least one of cooling apertures, quench holes, and an attachment mechanism; stacking each of the sheets to form a three-dimensional heat shield panel; and joining the sheets together; wherein the sheets are stacked onto a negative template of the heat shield panel; and wherein the complex geometries comprise at least one of a spiral passageway, a zig-zag passageway, a branching passageway, a passageway (309c, 309d) with two or more turns, and a passageway with a curvilinear side wall; wherein the negative template of the heat shield panel is configured to curve each of the sheets into a three-dimensional slice of the heat shield panel.
An aerosol can configuration, with an outer can, an inner container and a spray head provided with a discharge element, the spray head having an outlet valve (8, 9) connected to the interior of the outer can and an outlet valve (8, 9) connected to the interior of the inner container, wherein at least one first component is contained together with at least one propellant gas in the outer can, and at least one further component together with at least one propellant gas is contained in the inner container, and wherein the outlet valves (8, 9) are configured to be actuated jointly by pressing on the spray head such that the contents of the outer can and the contents of the inner container can jointly enter the discharge element, characterised in that, to form the foam, the outer can contains at least 30 to 70 wt.-% isocyanate, in particular diphenylmethane 4,4'-diisocyanate, and 5 to 30% by weight liquid gas at a critical temperature of ≥+70°C, 3 to 15 wt.-% polyol with an OH number of less than 300 and 10 to 20 wt.-% flame retardant is contained in the outer can, and at least 5 to 30 wt.-% polyol with an OH number of more than 300, 1 to 10 wt.-% liquid gas with a critical temperature of ≥+70°C, and 0.5 to 3 wt.-% catalyst for the urethane reaction and 0.5 to 3 wt.-% trimerisation catalyst are additionally contained in the inner container.
A method for subsurface imaging of nanostructures buried inside a three dimensional substrate, the method comprising - providing an atomic force microscope with an AFM tip continuously or periodically contacting a top surface of the substrate; - providing an ultrasonic generator comprising an actuating element directly or indirectly contacting a side face of the substrate, transverse to the top surface, wherein the actuating element comprises an electro-acoustic transducer, or the ultrasonic generator couples to the side face via a coupling medium there between; - using the ultrasonic generator to couple ultrasound waves via the side face into an interior of the substrate, wherein the interior comprises or forms a waveguide for propagating the ultrasound waves in a direction along a length of the substrate transverse to the side face, wherein a wavelength (λ) of the ultrasound waves propagating in the waveguide is larger than a thickness (d) of the waveguide transverse to the direction of propagation; and - imaging the nanostructures by using the AFM tip to measure an effect at the top surface caused by direct or indirect interaction of the ultrasound waves with the buried nanostructures. - providing an atomic force microscope with an AFM tip continuously or periodically contacting a top surface of the substrate; - providing an ultrasonic generator comprising an actuating element directly or indirectly contacting a side face of the substrate, transverse to the top surface, wherein the actuating element comprises an electro-acoustic transducer, or the ultrasonic generator couples to the side face via a coupling medium there between; - using the ultrasonic generator to couple ultrasound waves via the side face into an interior of the substrate, wherein the interior comprises or forms a waveguide for propagating the ultrasound waves in a direction along a length of the substrate transverse to the side face, wherein a wavelength (λ) of the ultrasound waves propagating in the waveguide is larger than a thickness (d) of the waveguide transverse to the direction of propagation; and - imaging the nanostructures by using the AFM tip to measure an effect at the top surface caused by direct or indirect interaction of the ultrasound waves with the buried nanostructures.
A method for performing operations using a robotic platform (314, 334, 1000, 1100), the method comprising: receiving, by the robotic platform (314, 334, 1000, 1100), commands from a cell controller (318, 700, 808) to perform a number of tasks at a number of locations (306, 307) using a first robotic device (312, 338) in a number of robotic devices, the first robotic device being physically unassociated with the robotic platform; interacting with the first robotic device (312, 338) in the number of robotic devices by physically associating the robotic platform (314, 334, 1000, 1100) with the first robotic device to form an associated first robotic device; moving the associated first robotic device (312, 338) to a first location in the number of locations; and operating the associated first robotic device (312, 338) to perform a first task; the method further comprising: receiving information from the associated first robotic device (312, 338); physically disassociating with the associated first robotic device (312, 338); and interacting with a second robotic device to form an associated second robotic device. receiving, by the robotic platform (314, 334, 1000, 1100), commands from a cell controller (318, 700, 808) to perform a number of tasks at a number of locations (306, 307) using a first robotic device (312, 338) in a number of robotic devices, the first robotic device being physically unassociated with the robotic platform; interacting with the first robotic device (312, 338) in the number of robotic devices by physically associating the robotic platform (314, 334, 1000, 1100) with the first robotic device to form an associated first robotic device; moving the associated first robotic device (312, 338) to a first location in the number of locations; and operating the associated first robotic device (312, 338) to perform a first task; receiving information from the associated first robotic device (312, 338); physically disassociating with the associated first robotic device (312, 338); and interacting with a second robotic device to form an associated second robotic device.
Device for receiving, stacking and removing microtiter plates comprising: a tower for stacking microtiter plates, wherein a microtiter plate comprises a container and optionally a lid, a holding device arranged at the lower end of the tower that has a first and a second holding tool and that is preferably provided to partially enclose a microtiter plate, wherein the first holding tool is configured to positively hold a microtiter plate and the first and the second holding tool (33, 35) are arranged on the holding device movable towards the middle of the tower, characterized in that the first holding tool is arranged above the second holding tool and the second holding tool is configured to frictionally fix the container of the microtiter plates. a tower for stacking microtiter plates, wherein a microtiter plate comprises a container and optionally a lid, a holding device arranged at the lower end of the tower that has a first and a second holding tool and that is preferably provided to partially enclose a microtiter plate, wherein the first holding tool is configured to positively hold a microtiter plate and the first and the second holding tool (33, 35) are arranged on the holding device movable towards the middle of the tower, characterized in that the first holding tool is arranged above the second holding tool and the second holding tool is configured to frictionally fix the container of the microtiter plates.
A bicycle electrical component control system for controlling a plurality of electrical components that can be installed on an electric bicycle in which human-powered driving is assisted by a motor; the bicycle electrical component control system comprising a plurality of electrical components a control part which selects an operation mode from three or more operation modes based on a state of operation of each of the electrical components, and which controls an electrical component operating in the selected operation mode, wherein the control part performs a comparison between a configuration of operation of the electrical components operating in each of three or more operation modes and a state of operation of each of the electrical components, and the control part thereby selects, from three or more operation modes, an operation mode that operates according to the configuration of operation of each of the electrical components that corresponds with the state of operation of the electrical components.
Air spring assembly or air spring damper with an integrated valve control for controlling a level position of a vehicle or of a driver's cab, comprising: a rolling tube, a lid and an air spring bellows which, together with the rolling tube and the lid, delimits a pressure chamber with compressed air; a control valve (8, 9) for feeding compressed air into the pressure chamber or for discharging compressed air from the pressure chamber; and a compression spring device, a first end of the compression spring device being operatively connected to the rolling tube or the lid, and a second end of the compression spring device being operatively connected to the actuation device (8a, 9a) of the control valve (8, 9) in order to switch the control valve (8, 9) depending on an air spring stroke, characterised in that the compression spring device is configured with at least two parts including a central spring facing towards the rolling tube or the lid and a control valve biasing spring facing towards the control valve (8, 9), the central spring being biased to a greater extent than the control valve biasing spring. a rolling tube, a lid and an air spring bellows which, together with the rolling tube and the lid, delimits a pressure chamber with compressed air; a control valve (8, 9) for feeding compressed air into the pressure chamber or for discharging compressed air from the pressure chamber; and a compression spring device, a first end of the compression spring device being operatively connected to the rolling tube or the lid, and a second end of the compression spring device being operatively connected to the actuation device (8a, 9a) of the control valve (8, 9) in order to switch the control valve (8, 9) depending on an air spring stroke, characterised in that the compression spring device is configured with at least two parts including a central spring facing towards the rolling tube or the lid and a control valve biasing spring facing towards the control valve (8, 9), the central spring being biased to a greater extent than the control valve biasing spring.