mhurhangee/ep-ind-claims huggingface dataset:
Form of administration comprising - a physiologically active substance; - optionally one or more physiologically compatible additives; - a synthetic or natural polymer; and - optionally a natural, semi-synthetic or synthetic wax; wherein the form of administration - has a breaking strength of at least 400 N; - contains neither tramadol hydrochloride nor oxycodone hydrochloride; - under physiological conditions after 5 hours releases at most 99% of the substance; and - has a total weight in the range from 0.1 g to 1.0 g. - a physiologically active substance; - optionally one or more physiologically compatible additives; - a synthetic or natural polymer; and - optionally a natural, semi-synthetic or synthetic wax; - has a breaking strength of at least 400 N; - contains neither tramadol hydrochloride nor oxycodone hydrochloride; - under physiological conditions after 5 hours releases at most 99% of the substance; and - has a total weight in the range from 0.1 g to 1.0 g.
An electronically controlled hatch system for use with an access port for ingress or egress, said hatch system comprising: a hatch cooperating with said access port for limiting entry and exit through said access port, wherein said hatch has at least an open position and a closed position; characterized in that said hatch system comprises: at least one guide rail mounted to said hatch; at least one safety rail retractably positioned adjacent said access port and cooperating with said guide rail to raise and lower said hatch to the open position and the closed position as said safety rail is retractably raised and lowered; an actuator cooperating with said safety rail for raising and lowering said safety rail; and a control unit communicating with the actuator to position the hatch. a hatch cooperating with said access port for limiting entry and exit through said access port, wherein said hatch has at least an open position and a closed position; characterized in that said hatch system comprises: at least one guide rail mounted to said hatch; at least one safety rail retractably positioned adjacent said access port and cooperating with said guide rail to raise and lower said hatch to the open position and the closed position as said safety rail is retractably raised and lowered; an actuator cooperating with said safety rail for raising and lowering said safety rail; and a control unit communicating with the actuator to position the hatch. at least one guide rail mounted to said hatch; at least one safety rail retractably positioned adjacent said access port and cooperating with said guide rail to raise and lower said hatch to the open position and the closed position as said safety rail is retractably raised and lowered; an actuator cooperating with said safety rail for raising and lowering said safety rail; and a control unit communicating with the actuator to position the hatch.
A method for producing (meth)acrylic acid, comprising: conducting gas-phase catalytic oxidation reactions of (meth)acrolein by using molecular oxygen in a fixed-bed reactor configured to have a packed layer containing a packing material and a catalyst layer formed with a catalyst containing at least molybdenum and vanadium, wherein the packed layer contains a packing material that has been used at least once for above gas-phase catalytic oxidation reactions and cleaned subsequently, a source gas containing (meth)acrolein and molecular oxygen is supplied from the packed-layer side, and the catalyst is present in the packed layer at 0.001∼0.15 mass% of the total amount of the packing material. conducting gas-phase catalytic oxidation reactions of (meth)acrolein by using molecular oxygen in a fixed-bed reactor configured to have a packed layer containing a packing material and a catalyst layer formed with a catalyst containing at least molybdenum and vanadium, wherein the packed layer contains a packing material that has been used at least once for above gas-phase catalytic oxidation reactions and cleaned subsequently, a source gas containing (meth)acrolein and molecular oxygen is supplied from the packed-layer side, and the catalyst is present in the packed layer at 0.001∼0.15 mass% of the total amount of the packing material.
A pneumatic tire seater (100, 110) for seating a tire on a wheel, the pneumatic tire seater comprising: an air tank (101, 102) configured to hold pressurized air in an interior of the air tank; a gas valve (103, 300) in unconstrained pneumatic communication with the interior of the air tank (101, 102), the gas valve (103, 300) being configured with an endcap at a proximal end of the gas valve; a piston included as part of the gas valve, the piston being configured to slide back and forth within a cylinder of the gas valve, wherein a distal end of the piston is configured to be seated in a closed position against a portion of the gas valve to prevent the pressurized air from escaping from the air tank; a control chamber formed within the cylinder between the endcap of the gas valve and a proximal end of the piston; one or more control gas passageways configured to provide constrained pneumatic communication between the control chamber and the pressurized air in the air tank (101, 102) and a flexible sealing component included as part of the gas valve and being configured to removably seat on a portion of the gas valve in an airtight manner; wherein, in response to being opened the gas valve releases the pressurized air from the air tank (101, 102) in a burst sufficient to seat the tire on a rim of the wheel. an air tank (101, 102) configured to hold pressurized air in an interior of the air tank; a gas valve (103, 300) in unconstrained pneumatic communication with the interior of the air tank (101, 102), the gas valve (103, 300) being configured with an endcap at a proximal end of the gas valve; a piston included as part of the gas valve, the piston being configured to slide back and forth within a cylinder of the gas valve, wherein a distal end of the piston is configured to be seated in a closed position against a portion of the gas valve to prevent the pressurized air from escaping from the air tank; a control chamber formed within the cylinder between the endcap of the gas valve and a proximal end of the piston; one or more control gas passageways configured to provide constrained pneumatic communication between the control chamber and the pressurized air in the air tank (101, 102) and a flexible sealing component included as part of the gas valve and being configured to removably seat on a portion of the gas valve in an airtight manner; wherein, in response to being opened the gas valve releases the pressurized air from the air tank (101, 102) in a burst sufficient to seat the tire on a rim of the wheel.
An apparatus comprising: a tank (402; 502) having an inlet and an outlet (414; 514) and a flow path defined therebetween; and a shut-off valve (405; 505), characterised in that the shut-off valve comprises a float (406; 506) that occludes the tank outlet (414; 514) at a first fluid level and 1 G (F G) and unoccludes the tank outlet at a second fluid level and 1 G; and a negative G control component (408; 508) operatively connected to the float to limit fluid flow from the tank outlet during negative G events; and in that the negative G control component (408; 508) includes: a slosh plate disposed proximate to the float surrounding at least a portion of the float, wherein the slosh plate is configured to concentrate fluid between the slosh plate and the float during a negative G event to damp a displacement of the float against a negative G event force (F -G); or a check valve in fluid communication with the float, wherein the check valve is configured to block fluid flow from the tank outlet to the ejector pump during negative G events. a tank (402; 502) having an inlet and an outlet (414; 514) and a flow path defined therebetween; and a shut-off valve (405; 505), characterised in that the shut-off valve comprises a float (406; 506) that occludes the tank outlet (414; 514) at a first fluid level and 1 G (F G) and unoccludes the tank outlet at a second fluid level and 1 G; and a negative G control component (408; 508) operatively connected to the float to limit fluid flow from the tank outlet during negative G events; and in that the negative G control component (408; 508) includes: a slosh plate disposed proximate to the float surrounding at least a portion of the float, wherein the slosh plate is configured to concentrate fluid between the slosh plate and the float during a negative G event to damp a displacement of the float against a negative G event force (F -G); or a check valve in fluid communication with the float, wherein the check valve is configured to block fluid flow from the tank outlet to the ejector pump during negative G events. a slosh plate disposed proximate to the float surrounding at least a portion of the float, wherein the slosh plate is configured to concentrate fluid between the slosh plate and the float during a negative G event to damp a displacement of the float against a negative G event force (F -G); or a check valve in fluid communication with the float, wherein the check valve is configured to block fluid flow from the tank outlet to the ejector pump during negative G events.
A liquid crystal display apparatus, comprising: a liquid crystal cell including a liquid crystal layer containing liquid crystal molecules aligned in homogeneous alignment under a state in which an electric field is absent; a first polarizer arranged on a viewer side of the liquid crystal cell; a second polarizer arranged on a back surface side of the liquid crystal cell; a first optical compensation layer arranged between the liquid crystal cell and the first polarizer; and a second optical compensation layer arranged between the liquid crystal cell and the first optical compensation layer, wherein a refractive index nz 1 in a thickness direction of the first optical compensation layer is less than 1.5187, and a refractive index nz 2 in a thickness direction of the second optical compensation layer is less than 1.5340, and wherein the first optical compensation layer shows a refractive index characteristic of nx>ny>nz, and the second optical compensation layer shows a refractive index characteristic of nz>nx>ny, wherein the refractive indexes are measured at the wavelength of 550 nm. a liquid crystal cell including a liquid crystal layer containing liquid crystal molecules aligned in homogeneous alignment under a state in which an electric field is absent; a first polarizer arranged on a viewer side of the liquid crystal cell; a second polarizer arranged on a back surface side of the liquid crystal cell; a first optical compensation layer arranged between the liquid crystal cell and the first polarizer; and a second optical compensation layer arranged between the liquid crystal cell and the first optical compensation layer, wherein a refractive index nz 1 in a thickness direction of the first optical compensation layer is less than 1.5187, and a refractive index nz 2 in a thickness direction of the second optical compensation layer is less than 1.5340, and wherein the first optical compensation layer shows a refractive index characteristic of nx>ny>nz, and the second optical compensation layer shows a refractive index characteristic of nz>nx>ny, wherein the refractive indexes are measured at the wavelength of 550 nm.
A medical tool, comprising: a distal end that is deflectable; at least a pull wire, having a first end coupled to the distal end of the medical tool and configured to be moved for deflecting the distal end; and a deflection assembly, which is coupled to a second end of at least the pull wire and is configured to control a deflection of the distal end, the deflection assembly comprising: a first gear having a first rotation axis; and a second gear, having a second rotation axis, which is parallel to the longitudinal axis of the medical tool, and comprising a toothed surface for integrating with the first gear, wherein the toothed surface is slanted relative to the second rotation axis, and wherein, when the first gear rotates, the second gear is configured to be rotated by the first gear and to move along the second rotation axis and deflect the distal end by moving the pull wire. a distal end that is deflectable; at least a pull wire, having a first end coupled to the distal end of the medical tool and configured to be moved for deflecting the distal end; and a deflection assembly, which is coupled to a second end of at least the pull wire and is configured to control a deflection of the distal end, the deflection assembly comprising: a first gear having a first rotation axis; and a second gear, having a second rotation axis, which is parallel to the longitudinal axis of the medical tool, and comprising a toothed surface for integrating with the first gear, a first gear having a first rotation axis; and a second gear, having a second rotation axis, which is parallel to the longitudinal axis of the medical tool, and comprising a toothed surface for integrating with the first gear, wherein the toothed surface is slanted relative to the second rotation axis, and wherein, when the first gear rotates, the second gear is configured to be rotated by the first gear and to move along the second rotation axis and deflect the distal end by moving the pull wire.
Method for regenerating a solid oxide fuel cell, characterized in that a syngas obtained from a steam reforming process is used as the anode gas, comprising the following steps: a) setting the operating temperature of the solid oxide fuel cell to 600°C to 1,200°C, b) setting the molar hydrogen content of the syngas to at least 1% and a maximum of 10%, and d) operating the solid oxide fuel cell in idling mode and measuring the idling voltage, wherein an idling voltage of -715 mV to -830 mV is established. a) setting the operating temperature of the solid oxide fuel cell to 600°C to 1,200°C, b) setting the molar hydrogen content of the syngas to at least 1% and a maximum of 10%, and d) operating the solid oxide fuel cell in idling mode and measuring the idling voltage, wherein an idling voltage of -715 mV to -830 mV is established.
A detonator installation which includes control equipment comprising a controller a voltage source, an inductor and a switch which are connected in series with the voltage source, and output terminals (24, 26) and at least one detonator which includes a capacitor and at least one protective diode (44, 46), connected in series to the output terminals, wherein the controller is operable repeatedly to close the switch thereby to direct current from the voltage source through the inductor which then establishes a magnetic field, and to open the switch so that the magnetic field collapses and generates a current which flows via the output terminals through the capacitor and the diode thereby to charge the capacitor.
A method of producing a substance, comprising the steps of: culturing a mutant filamentous fungus with no expression of α-1,3-glucan to allow the filamentous fungus to produce a substance other than α-1,3-glucan, β-1,3-glucan, poly galactose, glucose, galactose, glucosamine, amino acid, mannose, N-acetylglucosamine, N-acetylgalactosamine, and chitin; and collecting the resulting substance; wherein the mutant filamentous fungus is deficient in at least one α-1,3-glucan synthase ags gene. culturing a mutant filamentous fungus with no expression of α-1,3-glucan to allow the filamentous fungus to produce a substance other than α-1,3-glucan, β-1,3-glucan, poly galactose, glucose, galactose, glucosamine, amino acid, mannose, N-acetylglucosamine, N-acetylgalactosamine, and chitin; and collecting the resulting substance;
Cosmetic gel-type wash-active preparation containing one or more anionic surfactants, optionally further non-ionic, amphoteric and/or zwitterionic surfactants, one or more gel-forming acrylate thickeners selected from the group of cross-linked alkali-swellable acrylate copolymers, one or more 1,2-alkanediols having 5 carbon atoms and wherein the preparation has a yield point of 0.5-20 Pa, preferably 1-6 Pa, measured as the critical shear stress of a flow curve on a shear stress-controlled rheometer at 25°C +/- 1°C with 25 mm plate/plate geometry at a gap between 0.8 mm and 1.2 mm, wherein charging is carried out in a structure-preserving manner, a suitable constant shear stress gradient is predefined, before the test a corresponding structure recovery time is observed and the critical shear stress at the maximum of the flow curve is stated and wherein the preparation has a viscosity of 1500-10 000 mPas.
A method of monitoring water-soluble treatment chemicals in a fluid immiscible with water, wherein the fluid immiscible with water is a hydrocarbon which may or may not contain some aqueous fluid, wherein the treatment chemicals are alcohol or glycol hydrate inhibitors, the method comprising: a. obtaining a sample of said fluid; b. adding an aqueous first reagent to the fluid sample, the aqueous first reagent being reactive with the treatment chemical to produce a first product; c. adding an aqueous second reagent to the fluid sample, the aqueous second reagent being reactive with the first product to produce an optically detectable second product; and d. detecting the optically detectable second product; wherein the detection step can take place without separation of the aqueous phase containing the treatment chemicals from the fluid immiscible with water. a. obtaining a sample of said fluid; b. adding an aqueous first reagent to the fluid sample, the aqueous first reagent being reactive with the treatment chemical to produce a first product; c. adding an aqueous second reagent to the fluid sample, the aqueous second reagent being reactive with the first product to produce an optically detectable second product; and d. detecting the optically detectable second product;
A composition for injection into animals comprising an active pharmaceutical ingredient and a pharmaceutically acceptable carrier, wherein the active pharmaceutical ingredient comprises tetra-O-methyl NDGA, and the carrier comprises a cyclodextrin and polyethylene glycol, the polyethylene glycol is present in the absence of ascorbic acid or butylated hydroxytoluene, and when the polyethylene glycol is polyethylene glycol 400, the polyethylene glycol 400 is present in the absence of polyethylene glycol 8000.
A method comprising: forming, via fusion draw, a laminate structure comprising a core layer comprised of a sodium rich lithium deficient glass composition sandwiched between first and second clad layers comprised of a lithium-rich glass composition; heat treating the laminate structure to diffuse lithium ions from at least one of the first or second clad layers to the core layer, and to diffuse sodium ions from the core layer to at least one of the first or second clad layers; and heat treating the laminate structure a second time, wherein in the second heat treatment the laminate structure is heated sufficiently to nucleate and grow a ceramic phase in the laminate structure. forming, via fusion draw, a laminate structure comprising a core layer comprised of a sodium rich lithium deficient glass composition sandwiched between first and second clad layers comprised of a lithium-rich glass composition; heat treating the laminate structure to diffuse lithium ions from at least one of the first or second clad layers to the core layer, and to diffuse sodium ions from the core layer to at least one of the first or second clad layers; and heat treating the laminate structure a second time, wherein in the second heat treatment the laminate structure is heated sufficiently to nucleate and grow a ceramic phase in the laminate structure.
A method of operating a bank of memory cells (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n) having multiple sections of memory cells (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n), comprising: identifying a first memory address associated with a first memory cell (105, 105-a, 105-b, 605, 620-a... 620-n, 680-a... 680-n) and a second memory address associated with a second memory cell (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n) to be activated; determining section locations within the bank of memory cells (105, 105-a, 105-b, 620-a...620-n, 680-a... 680-n) of the first memory cell (105, 105-a, 105-b, 605, 620-a... 620-n, 680-a... 680-n) and the second memory cell (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n), wherein the section locations are based at least in part on a set of memory addresses that comprises the first memory address and the second memory address being scrambled; and identifying a timing for activating the second memory cell (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n) relative to activating the first memory cell (105, 105-a, 105-b, 605, 620-a...620-n, 680-a...680-n) based at least in part on the section locations of the first memory cell (105, 105-a, 105-b, 605, 620-a... 620-n, 680-a... 680-n) and the second memory cell (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n). identifying a first memory address associated with a first memory cell (105, 105-a, 105-b, 605, 620-a... 620-n, 680-a... 680-n) and a second memory address associated with a second memory cell (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n) to be activated; determining section locations within the bank of memory cells (105, 105-a, 105-b, 620-a...620-n, 680-a... 680-n) of the first memory cell (105, 105-a, 105-b, 605, 620-a... 620-n, 680-a... 680-n) and the second memory cell (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n), wherein the section locations are based at least in part on a set of memory addresses that comprises the first memory address and the second memory address being scrambled; and identifying a timing for activating the second memory cell (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n) relative to activating the first memory cell (105, 105-a, 105-b, 605, 620-a...620-n, 680-a...680-n) based at least in part on the section locations of the first memory cell (105, 105-a, 105-b, 605, 620-a... 620-n, 680-a... 680-n) and the second memory cell (105, 105-a, 105-b, 620-a... 620-n, 680-a... 680-n).
A stacking apparatus for stacking a plurality of wafers, comprising: a first wafer holder arranged to hold one wafer from among the plurality of wafers; a second wafer holder arranged to hold the other wafers from among the plurality of wafers; a transferring unit arranged to transfer the first and second wafer holders holding the plurality of wafers therebetween; and a wafer microscope arranged to measure positions of alignment marks provided on surfaces of the plurality of wafers, and the wafer microscope is arranged to measure positions of alignment marks provided on surfaces of the other wafers being held by the second wafer holder wherein the stacking apparatus further comprises a clamp unit suitable to clamp the first and second wafer holders. a first wafer holder arranged to hold one wafer from among the plurality of wafers; a second wafer holder arranged to hold the other wafers from among the plurality of wafers; a transferring unit arranged to transfer the first and second wafer holders holding the plurality of wafers therebetween; and a wafer microscope arranged to measure positions of alignment marks provided on surfaces of the plurality of wafers, and the wafer microscope is arranged to measure positions of alignment marks provided on surfaces of the other wafers being held by the second wafer holder wherein the stacking apparatus further comprises a clamp unit suitable to clamp the first and second wafer holders.
Two-part luggage which is designed in a cube-shaped or cuboid manner and comprises a diagonal partition, wherein the parts (10, 20) of the luggage can be joined together into a closable single luggage piece, wherein the parts (10, 20) of the luggage-are designed as hard-shell luggage pieces and, joined together, form hard-shell luggage, characterised in that the parts (10, 20) are individually closable, wherein both parts (10, 20) each comprise an inner closure (11.2, 21.2).