mhurhangee/ep-ind-claims huggingface dataset:
Method for continuous aeraulic separation of particulate materials consisting of a mixture of particles that is heterogeneous in both particle size and density, characterised in that it comprises the following steps: (a) grinding particles of materials, (b) generating a gas stream conveying the ground particles, (c) first aeraulic separation on said gas stream in a first aeraulic separation unit in order to separate the particles it contains into a first fraction consisting of the coarsest particles with variable densities, and a second fraction consisting of the finest particles, (d) second aeraulic separation on said first fraction in a second aeraulic separation unit in order to separate the particles it contains into a third fraction consisting of the coarsest and/or densest particles and a fourth fraction consisting of the least coarse and/or the least dense particles, (e) reinjecting the third fraction or the fourth fraction at the inlet of the grinding, and (f) simultaneous recovery of the second fraction as well as the fourth fraction or the third fraction, respectively, as output products. (a) grinding particles of materials, (b) generating a gas stream conveying the ground particles, (c) first aeraulic separation on said gas stream in a first aeraulic separation unit in order to separate the particles it contains into a first fraction consisting of the coarsest particles with variable densities, and a second fraction consisting of the finest particles, (d) second aeraulic separation on said first fraction in a second aeraulic separation unit in order to separate the particles it contains into a third fraction consisting of the coarsest and/or densest particles and a fourth fraction consisting of the least coarse and/or the least dense particles, (e) reinjecting the third fraction or the fourth fraction at the inlet of the grinding, and (f) simultaneous recovery of the second fraction as well as the fourth fraction or the third fraction, respectively, as output products.
A process for treating a fluid comprising at least one oxidizable component comprising: delivering the fluid to an electrooxidation cell for treatment of the at least one oxidizable organic component; increasing pressure within an electrooxidation zone of the electrooxidation cell to provide an elevated pressure of at least 0.69 bar (10 psi); and oxidizing the oxidizable component within the electrooxidation cell at the pressure; wherein the oxidizing is done at a current density of from 10,000 amps/m 2 and 40,000 amps/m 2; and wherein the electrooxidation cell comprises at least an anode, a cathode, a bipolar electrode between the anode and the cathode, and a power source for the cell, the bipolar electrode further comprising a diamond material doped with a conductive dopant material. delivering the fluid to an electrooxidation cell for treatment of the at least one oxidizable organic component; increasing pressure within an electrooxidation zone of the electrooxidation cell to provide an elevated pressure of at least 0.69 bar (10 psi); and oxidizing the oxidizable component within the electrooxidation cell at the pressure; wherein the oxidizing is done at a current density of from 10,000 amps/m 2 and 40,000 amps/m 2; and wherein the electrooxidation cell comprises at least an anode, a cathode, a bipolar electrode between the anode and the cathode, and a power source for the cell, the bipolar electrode further comprising a diamond material doped with a conductive dopant material.
Biosensor substrate, said substrate having a surface adapted for culturing cells, in particular neuronal cells, and comprising means for monitoring and/or stimulating the electrical activity of said cells including a micro-electrode array, wherein said substrate has a structured surface with a predetermined pattern comprising spatially organised cytophilic pads of controlled size for culturing said cells, characterised in that said cytophilic pads exhibit a size distribution comprising a predetermined number of distinct size classes that is not less than four, each size class corresponding to a given range of cytophilic pad area; and wherein the cytophilic pad area between two next size classes is increased by a factor of four or more.
A liquid distributing system for distributing liquids such as water or slurry on a field, said system comprising, a liquid conduit for being placed in a longitudinal direction on said field, pressurising means for pressurising a liquid in said liquid conduit, distributing means comprising drive means for moving said distributing means in said longitudinal direction, wherein said distributing means comprises tap means for tapping liquid from said liquid conduit and delivery means for distributing said liquid to said field, said distributing means further comprises conduit displacing means for displacing said liquid conduit in a direction transverse to said longitudinal direction on said field. characterised in that said liquid conduit comprises valves and wherein said tap means comprises valve control means for controlling said valves.
Combustion chamber tile of a gas turbine, where the combustion chamber tile has a plurality of effusion cooling holes and is provided with a mixing air hole designed as a flow-guiding element and projecting over the surface of the combustion chamber tile, characterized in that on the side of the flow-guiding element facing away from a flow along the combustion chamber tile at least one supporting element is arranged in the form of a rib on the combustion chamber tile and on the flow-guiding element.
A dolly-pallet device convertible between a retracted state in which the device is usable as a dolly and a support state in which the device is usable as a pallet, comprising: a load-bearing deck portion; a set of wheels attached to the deck in a fixed relationship for supporting the deck for movement over a ground surface when the device is in the retracted state; and a pair of retractable support skids mechanically linked to said load-bearing deck portion each support skid having an undersurface portion extending across the deck portion of the dolly-pallet for engaging the ground when the device is in the support state; wherein the support skids are movable relative to the deck by means of a displacement mechanism to convert the dolly-pallet device between the retracted state and the support state; and wherein the support skids are formed with openings through which the wheels extend when the device is in the retracted state. a load-bearing deck portion; a set of wheels attached to the deck in a fixed relationship for supporting the deck for movement over a ground surface when the device is in the retracted state; and a pair of retractable support skids mechanically linked to said load-bearing deck portion each support skid having an undersurface portion extending across the deck portion of the dolly-pallet for engaging the ground when the device is in the support state; wherein the support skids are movable relative to the deck by means of a displacement mechanism to convert the dolly-pallet device between the retracted state and the support state; and wherein the support skids are formed with openings through which the wheels extend when the device is in the retracted state.
Receiving space of a galley for the storage of rollable containers (20, 21) in a vehicle, having a receiving system (30, 300, 350) with at least one transfer plate (31, 310) and at least one container which can be positioned on the transfer plate (31, 310) and has a rear container wall characterised by: - a rail system (32, 320) in the bottom region of the receiving space, - the transfer plate (31, 310) movable on the rail system (32, 320) in the floor region of the receiving space and occupying a storage position and a removal position for the container, - the storage position of the container with its rear container wall being provided in the region of a rear wall of the receiving space and the removal position being provided in the region of an insertion opening for inserting and removing a container equipped with transport rollers into the receiving space, arranged opposite the rear wall, - the rail system has at least one guide rail (40, 400) which is arranged on the floor of the receiving space in the direction of movement of the transfer plate (31, 310), and - moving bodies (42, 420) are arranged on the transfer plate (31, 310) engaging in the at least one guide rail (40, 400). - a rail system (32, 320) in the bottom region of the receiving space, - the transfer plate (31, 310) movable on the rail system (32, 320) in the floor region of the receiving space and occupying a storage position and a removal position for the container, - the storage position of the container with its rear container wall being provided in the region of a rear wall of the receiving space and the removal position being provided in the region of an insertion opening for inserting and removing a container equipped with transport rollers into the receiving space, arranged opposite the rear wall, - the rail system has at least one guide rail (40, 400) which is arranged on the floor of the receiving space in the direction of movement of the transfer plate (31, 310), and - moving bodies (42, 420) are arranged on the transfer plate (31, 310) engaging in the at least one guide rail (40, 400).
A torch tip for a handheld plasma torch, the handheld plasma torch having a trigger and a torch tip mount, the torch tip (400, 800, 1200) comprising: a substantially hollow nozzle (405, 810, 1210), the nozzle having an end face through which a plasma exit orifice is disposed; an electrode (410, 815, 1205) disposed relative to the nozzle (405, 810, 1210); the nozzle being mounted relative to the electrode to define a plasma chamber; a swirl ring (415, 1220), such that a cooling gas can flow between the electrode and nozzle, passing through the swirl ring and flowing through the plasma chamber and out the end face of the nozzle; and a housing disposed relative to the nozzle (405, 810, 1210) and the electrode (410, 815, 1205), the nozzle (405, 810, 1210), electrode and housing forming an assembled torch tip having a distal end and a proximal end, the proximal end of the assembled torch tip configured to couple to the torch tip mount, the torch tip being characterised by the end face having at least one supplemental orifice disposed relative to the plasma exit orifice; such that in use substantially all of the cooling gas can be used to cool the consumables at the tip of the torch and substantially all of the cooling gas can exit through the supplemental orifices, wherein a distance from the distal end to the proximal end of the assembled torch tip is greater than about 7.6 cm (3 inches). a substantially hollow nozzle (405, 810, 1210), the nozzle having an end face through which a plasma exit orifice is disposed; an electrode (410, 815, 1205) disposed relative to the nozzle (405, 810, 1210); the nozzle being mounted relative to the electrode to define a plasma chamber; a swirl ring (415, 1220), such that a cooling gas can flow between the electrode and nozzle, passing through the swirl ring and flowing through the plasma chamber and out the end face of the nozzle; and a housing disposed relative to the nozzle (405, 810, 1210) and the electrode (410, 815, 1205), the nozzle (405, 810, 1210), electrode and housing forming an assembled torch tip having a distal end and a proximal end, the proximal end of the assembled torch tip configured to couple to the torch tip mount, the torch tip being characterised by the end face having at least one supplemental orifice disposed relative to the plasma exit orifice; such that in use substantially all of the cooling gas can be used to cool the consumables at the tip of the torch and substantially all of the cooling gas can exit through the supplemental orifices, wherein a distance from the distal end to the proximal end of the assembled torch tip is greater than about 7.6 cm (3 inches).
A pharmaceutical composition for use in therapy, comprising sustained release formulation of naltrexone or a pharmaceutically acceptable salt thereof and a sustained release formulation of bupropion or a pharmaceutically acceptable salt thereof, wherein said composition is administered with food.
A unit exchanging device configured to automatically exchange a component supply unit between multiple component mounting machines in which multiple component supply units for supplying components are detachably installed, comprising: a gripping portion configured to grip the component supply unit; a moving section (55, 55a) configured to move the gripping portion along a predetermined direction between a position for attaching/detaching the component supply unit to and from the component mounting machine and a standby position within the unit exchanging device; and a control section configured to control the gripping and release of the gripping of the component supply unit by the gripping portion and the moving of the gripping portion by the moving section (55, 55a), characterized by the control section being configured to control the moving section (55, 55a) to change the standby position in accordance with the gripping state of the component supply unit by the gripping portion such that the movement amount of the gripping portion moved by the moving section (55, 55a) is minimized. a gripping portion configured to grip the component supply unit; a moving section (55, 55a) configured to move the gripping portion along a predetermined direction between a position for attaching/detaching the component supply unit to and from the component mounting machine and a standby position within the unit exchanging device; and a control section configured to control the gripping and release of the gripping of the component supply unit by the gripping portion and the moving of the gripping portion by the moving section (55, 55a), characterized by the control section being configured to control the moving section (55, 55a) to change the standby position in accordance with the gripping state of the component supply unit by the gripping portion such that the movement amount of the gripping portion moved by the moving section (55, 55a) is minimized.
A fuel cell system (100, 101, 102, 103), comprising: a reforming unit configured to reform a fuel to generate a reformed gas; a fuel cell having an anode (11 a) and a cathode and generating an electric power when the reformed gas is supplied to the anode (11 a) and an oxidant is supplied to the cathode; a circulation pump configured to induce a circulation wherein a part of anode off-gas discharged from the anode (11 a) is supplied to the reforming unit, and the reformed gas reformed by the reforming unit is introduced to an inlet of the anode (11 a), the fuel cell system (100, 101, 102, 103) further comprising a first heat exchange unit provided in an inlet side flow passage of the circulation pump, characterized in that the circulation pump is supplied the reformed gas, the first heat exchange unit is configured to cool the reformed gas supplied to the circulation pump, the first heat exchange unit is set so that the larger an output power of the fuel cell is, the more a temperature of a fluid supplied to a low temperature side of the first heat exchange unit decreases and the more capability to cool the reformed gas supplied to the circulation pump increases, and the temperature of the reformed gas at the inlet of the circulation pump decreases due to the increase of the capability to cool the reformed gas supplied to the circulation pump. a reforming unit configured to reform a fuel to generate a reformed gas; a fuel cell having an anode (11 a) and a cathode and generating an electric power when the reformed gas is supplied to the anode (11 a) and an oxidant is supplied to the cathode; a circulation pump configured to induce a circulation wherein a part of anode off-gas discharged from the anode (11 a) is supplied to the reforming unit, and the reformed gas reformed by the reforming unit is introduced to an inlet of the anode (11 a), the fuel cell system (100, 101, 102, 103) further comprising a first heat exchange unit provided in an inlet side flow passage of the circulation pump,
A method for assessing the efficacy of a treatment for a respiratory condition in a subject comprising the steps of: a) obtaining data concerning a pre-treatment three-dimensional image of the subject's respiratory system, and a post-treatment three-dimensional image of the subject's respiratory system, b) calculating a specific three-dimensional structural model of the subject's lung structure from each of the pre- and post-treatment image data obtained in step a), c) calculating a specific three-dimensional structural model of the subject's airway structure from each of the pre- and post-treatment image data obtained in step a), d) calculating a patient-specific three-dimensional structural model of the subject's lobar structure from each of the pre- and post-treatment lung structure models obtained in step b), e) modeling by a computer, the air flow through the airway at pre- and post-treatment states, using the respective pre- and post-treatment models of the airway and lobar structure of the subject obtained in steps c) and d); f) modeling by a computer, the structural behavior of the airway and the interaction with the flow at pre- and post-treatment states, using the respective pre- and post-treatment models of the airway and lobar structure of the subject obtained in steps c) and d); g) comparing the modeled airflow and structural behaviour pre- and post-treatment to determine the efficacy of a treatment, wherein an efficacious treatment is one that decreases airway resistance, thereby increasing lobar mass for same driving pressure. a) obtaining data concerning a pre-treatment three-dimensional image of the subject's respiratory system, and a post-treatment three-dimensional image of the subject's respiratory system, b) calculating a specific three-dimensional structural model of the subject's lung structure from each of the pre- and post-treatment image data obtained in step a), c) calculating a specific three-dimensional structural model of the subject's airway structure from each of the pre- and post-treatment image data obtained in step a), d) calculating a patient-specific three-dimensional structural model of the subject's lobar structure from each of the pre- and post-treatment lung structure models obtained in step b), e) modeling by a computer, the air flow through the airway at pre- and post-treatment states, using the respective pre- and post-treatment models of the airway and lobar structure of the subject obtained in steps c) and d); f) modeling by a computer, the structural behavior of the airway and the interaction with the flow at pre- and post-treatment states, using the respective pre- and post-treatment models of the airway and lobar structure of the subject obtained in steps c) and d); g) comparing the modeled airflow and structural behaviour pre- and post-treatment to determine the efficacy of a treatment, wherein an efficacious treatment is one that decreases airway resistance, thereby increasing lobar mass for same driving pressure.
Multi-sensor system for a vehicle consisting of at least two sensor units (102, 112, 122, 132), characterized in that the sensor units (102, 112, 122, 132) each comprise at least one sensor (104, 114, 124, 134), an internal clock (103, 113, 123, 133), and a control unit (105, 115, 125, 135), the control unit (105, 115, 125, 135) being designed to adapt measuring times of the at least one sensor (104, 114, 124, 134) on the basis of the clock time of the internal clock (103, 113, 123, 133), and to receive a synchronization signal and - on the basis of this synchronization signal - synchronize the internal clock (103, 113, 123, 133).
A valve for a flush-mounted body of a sanitary fitting, comprising at least: - a valve body with a longitudinal axis, - a rotatable flow control element for adjusting a flow volume of a liquid through the valve, and - a valve knob for opening and closing the valve, wherein the valve knob is rotatably adjustable parallel to the longitudinal axis by a control knob for the valve by means the flow control element, and wherein the control knob is attached to the valve knob by means of a rotary coupling so that the control knob can be attached relative to the valve housing in a rotationally fixed manner, wherein the control knob is attached to the valve knob by a threaded shaft that is rotationally fixed relative to the valve housing. - a valve body with a longitudinal axis, - a rotatable flow control element for adjusting a flow volume of a liquid through the valve, and - a valve knob for opening and closing the valve, wherein the valve knob is rotatably adjustable parallel to the longitudinal axis by a control knob for the valve by means the flow control element, and wherein the control knob is attached to the valve knob by means of a rotary coupling so that the control knob can be attached relative to the valve housing in a rotationally fixed manner, wherein the control knob is attached to the valve knob by a threaded shaft that is rotationally fixed relative to the valve housing.
-4-(1-(1-(4-(trifluoromethyl)benzyl) pyrrolidine-2-carboxamide) cyclopropyl benzoic acid (Compound 1) having the following structure: or a salt thereof.
A method for forming an assembly fixture, comprising: heating a composite material into a viscous form, wherein the composite material comprises a thermoplastic and a plurality of reinforcement fibers, wherein the plurality of reinforcement fibers is randomly arranged within the thermoplastic; extruding a plurality of strands of the composite material, wherein extruding the plurality of strands causes the plurality of reinforcement fibers within each strand to align; and arranging the plurality of strands of the composite material to form an assembly fixture, wherein the assembly fixture comprises an anisotropic thermal expansion property, and wherein the anisotropic thermal expansion property is based on an orientation of the plurality of reinforcement fibers within the assembly fixture. heating a composite material into a viscous form, wherein the composite material comprises a thermoplastic and a plurality of reinforcement fibers, wherein the plurality of reinforcement fibers is randomly arranged within the thermoplastic; extruding a plurality of strands of the composite material, wherein extruding the plurality of strands causes the plurality of reinforcement fibers within each strand to align; and arranging the plurality of strands of the composite material to form an assembly fixture, wherein the assembly fixture comprises an anisotropic thermal expansion property, and wherein the anisotropic thermal expansion property is based on an orientation of the plurality of reinforcement fibers within the assembly fixture.