mhurhangee/ep-ind-claims huggingface dataset:
Use of a scrubbing column for removal of residues of methanol as first absorbent from a first offgas substream comprising a carbon dioxide-containing offgas stream from a gasification plant for production of synthesis gas from carbonaceous feedstocks and from a second carbon dioxide-containing offgas substream obtained from a plant, connected downstream of the gasification plant, for separation of carbon dioxide and sulfur-containing accompanying gases from the synthesis gas by absorption with methanol, with use of water as second absorbent, where the scrubbing column comprises the following constituents and assemblies: - a shell which - based on a state of the scrubbing column arranged as intended - extends along a longitudinal axis that runs parallel to the vertical and which encloses an interior, where the interior is divided into an upper region and a lower region, each of which is equipped with at least one mass transfer zone, - a structured packing, disposed in the upper region of the interior, for separating residues of the first absorbent from the second offgas substream by absorption with a second absorbent, - an inlet for the second absorbent disposed above the structured packing, - an inlet for the second offgas substream disposed below the structured packing, - a random packing disposed in the lower region of the interior and below the inlet for the second offgas substream, - an inlet for the first offgas substream laden with solid particles which is disposed below the random packing, - an outlet, disposed on the outside of the shell, for the carbon dioxide-containing offgas stream that has been freed of residues of the first absorbent and of solid particles, - an outlet, disposed on the underside of the shell, for the second absorbent laden with residues of the first absorbent and with solid particles. - a shell which - based on a state of the scrubbing column arranged as intended - extends along a longitudinal axis that runs parallel to the vertical and which encloses an interior, where the interior is divided into an upper region and a lower region, each of which is equipped with at least one mass transfer zone, - a structured packing, disposed in the upper region of the interior, for separating residues of the first absorbent from the second offgas substream by absorption with a second absorbent, - an inlet for the second absorbent disposed above the structured packing, - an inlet for the second offgas substream disposed below the structured packing, - a random packing disposed in the lower region of the interior and below the inlet for the second offgas substream, - an inlet for the first offgas substream laden with solid particles which is disposed below the random packing, - an outlet, disposed on the outside of the shell, for the carbon dioxide-containing offgas stream that has been freed of residues of the first absorbent and of solid particles, - an outlet, disposed on the underside of the shell, for the second absorbent laden with residues of the first absorbent and with solid particles.
A method for protecting an electronic circuit, comprising the steps of: detecting a malfunction; in case of a detection of a malfunction, executing a plurality of waves of countermeasures without interrupting the operation of the circuit, the interval between two waves of countermeasures being variable; and after said plurality of waves of countermeasures, triggering a reset of the circuit, wherein a first group of waves does not include non-maskable interrupts. detecting a malfunction; in case of a detection of a malfunction, executing a plurality of waves of countermeasures without interrupting the operation of the circuit, the interval between two waves of countermeasures being variable; and after said plurality of waves of countermeasures, triggering a reset of the circuit, in case of a detection of a malfunction, executing a plurality of waves of countermeasures without interrupting the operation of the circuit, the interval between two waves of countermeasures being variable; and after said plurality of waves of countermeasures, triggering a reset of the circuit, wherein a first group of waves does not include non-maskable interrupts.
A method of making an electro-optic window formed from a material substantially transparent to at least one of infra-red, visible and UV radiation whereby to render the window capable of reduced RF/MICROWAVE transmission characteristics, the method including the steps of: forming on an upper surface of the window grid of channels wherein the window is formed from sapphire or spinel and wherein the step of forming on an upper surface of the window a grid of channels includes forming the grid of channels by laser etching the window material or by chemically etching the window material; sputtering over the surface of the window defining the grid a layer of metal having one of electrically conductive and dielectric properties to substantially fill the channels of the grid; characterized by selectively etching the surface of the window whereby to remove the sputtered metal from the surface while leaving the channels of the grid substantially filled with the metal; and fusion bonding a capping layer onto the gridded window. forming on an upper surface of the window grid of channels wherein the window is formed from sapphire or spinel and wherein the step of forming on an upper surface of the window a grid of channels includes forming the grid of channels by laser etching the window material or by chemically etching the window material; sputtering over the surface of the window defining the grid a layer of metal having one of electrically conductive and dielectric properties to substantially fill the channels of the grid; characterized by selectively etching the surface of the window whereby to remove the sputtered metal from the surface while leaving the channels of the grid substantially filled with the metal; and fusion bonding a capping layer onto the gridded window.
Fluid product reservoir (R; R') comprising a container (R1; R1') defining a collar and a mounting part (1; 1') mounted on the collar, the mounting part (1; 1') forming a basket (11; 11') disposed at the collar and a dip tube (12; 12') which extends from the basket (11; 11') into the container (R1; R1'), the dip tube (12; 12') being initially blocked by a sealing member, the fluid product reservoir (R; R') further comprising an insert (2; 2') disposed in the basket (11; 11'), the insert (2; 2') comprising a piercing element (21; 21') which can be moved between an initial position wherein the sealing member is blocking and a final position wherein the sealing member is moved in a state passing through the piercing element (21; 21'), characterised in that the insert (2; 2') is mainly housed inside the basket (11; 11') and comprises a cuff (23; 23') forming a receiving housing (24; 24') for the fitting of an inlet sleeve of a dispensing member (P; P'), the cuff (23; 23') being integral in movement with the piercing element (21; 21').
A quick-replace device for welding head of ultrasonic metal welding machine, wherein the quick-replace device comprises a fixing mechanism for a fixed connection to a framework and a movable mechanism for fixing an ultrasonic triplet, the ultrasonic triplet including a transducer, an amplitude modulator and a welding head, the movable mechanism being detachably mounted in the fixing mechanism, and comprising a mounting plate and a connecting assembly for fixing the ultrasonic triplet, the connecting assembly being arranged on the mounting plate; the fixing mechanism comprising a fixing block for the fixed connection to the framework, an abutting block for fixing the mounting plate being mounted in the fixing block, and a positioning block which is detachably mounted on the fixing block in a direction perpendicular to a sliding direction of the mounting plate and abuts against the mounting plate in a direction perpendicular to the adjusting direction of the abutting block, characterized in that the fixing mechanism comprises a mounting groove being defined in the fixing block with at least one side thereof being open and extending in use in a direction perpendicular to the framework, the mounting plate being slidably mounted in the mounting groove. the quick-replace device comprises a fixing mechanism for a fixed connection to a framework and a movable mechanism for fixing an ultrasonic triplet, the ultrasonic triplet including a transducer, an amplitude modulator and a welding head, a fixing mechanism for a fixed connection to a framework and a movable mechanism for fixing an ultrasonic triplet, the ultrasonic triplet including a transducer, an amplitude modulator and a welding head, the movable mechanism being detachably mounted in the fixing mechanism, and comprising a mounting plate and a connecting assembly for fixing the ultrasonic triplet, the connecting assembly being arranged on the mounting plate; the fixing mechanism comprising a fixing block for the fixed connection to the framework, an abutting block for fixing the mounting plate being mounted in the fixing block, and a positioning block which is detachably mounted on the fixing block in a direction perpendicular to a sliding direction of the mounting plate and abuts against the mounting plate in a direction perpendicular to the adjusting direction of the abutting block, characterized in that the fixing mechanism comprises a mounting groove being defined in the fixing block with at least one side thereof being open and extending in use in a direction perpendicular to the framework, the mounting plate being slidably mounted in the mounting groove.
A one-piece suspension device (2,2',2") for interposing between a mattress and a support structure, comprising: • a platform defining a bearing plane for the mattress; • a fastener point for fastening to the support structure; and • a resilient section that is more resilient than the platform in a direction perpendicular to the bearing plane, being interposed between the platform and the fastener point in the direction perpendicular to the bearing plane in order to absorb compression forces, and including at least one angled element having a first arm and a second arm, a first elastic hinge at a first end of the first arm, and a second elastic hinge connecting a second end of the first arm to the second arm and forming a bend in such a manner that the first arm presents an angle (α) relative to said bearing plane that is more pronounced than the angle (β) of the second arm with respect to the bearing plan, • the one-piece suspension device (2,2',2") being shaped in such a manner that any axis (Z 1,Z 2) perpendicular to said bearing plane and passing through the one-piece suspension device (2,2',2") intersects the one-piece suspension device (2,2',2") along a single intersection segment (S 1,S 2), and being characterized in that the second elastic hinge is more flexible that the first elastic hinge. • a platform defining a bearing plane for the mattress; • a fastener point for fastening to the support structure; and • a resilient section that is more resilient than the platform in a direction perpendicular to the bearing plane, being interposed between the platform and the fastener point in the direction perpendicular to the bearing plane in order to absorb compression forces, and including at least one angled element having a first arm and a second arm, a first elastic hinge at a first end of the first arm, and a second elastic hinge connecting a second end of the first arm to the second arm and forming a bend in such a manner that the first arm presents an angle (α) relative to said bearing plane that is more pronounced than the angle (β) of the second arm with respect to the bearing plan, • the one-piece suspension device (2,2',2") being shaped in such a manner that any axis (Z 1,Z 2) perpendicular to said bearing plane and passing through the one-piece suspension device (2,2',2") intersects the one-piece suspension device (2,2',2") along a single intersection segment (S 1,S 2), and being characterized in that the second elastic hinge is more flexible that the first elastic hinge.
Installation for adjusting the production of biomethane in accordance with the operation of a biomethane utilization unit, comprising: - a digester for producing biogas, - a membrane separation unit for producing a stream of biomethane and a stream of carbon dioxide from the biogas obtained from the digester, - a unit for utilizing the biomethane obtained from the membrane separation unit, - a first means for mixing the stream of biomethane and the stream of carbon dioxide obtained from the membrane separation unit, - a second means for sending a control signal from the utilization unit to the first means, and - a third means for recycling the mixture obtained from the first means into the digester. - a digester for producing biogas, - a membrane separation unit for producing a stream of biomethane and a stream of carbon dioxide from the biogas obtained from the digester, - a unit for utilizing the biomethane obtained from the membrane separation unit, - a first means for mixing the stream of biomethane and the stream of carbon dioxide obtained from the membrane separation unit, - a second means for sending a control signal from the utilization unit to the first means, and - a third means for recycling the mixture obtained from the first means into the digester.
An apparatus for manufacturing RFID transponders, comprising - a wire conveying device (202a, 202b, 204, 206) having at least two wire conveying units (402a, 402b) which are arranged and designed to convey at least two antenna wires (200a, 200b) in a conveying direction, wherein said wire conveying units (402a, 402b) being further arranged and adapted to cooperate in tensioning said at least two antenna wires (200a, 200b) at least in sections parallel to each other at an angle of substantially 90° to said conveying direction, so that said antenna wires (200a, 200b) parallel to each other in sections have a material tension at an angle of substantially 90° to said conveying direction; and - at least one placement device being arranged and adapted to place a transponder chip (10; 20) between the antenna wires (200a, 200b) tensioned at an angle of substantially 90° to the conveying direction. - a wire conveying device (202a, 202b, 204, 206) having at least two wire conveying units (402a, 402b) which are arranged and designed to convey at least two antenna wires (200a, 200b) in a conveying direction, wherein - at least one placement device being arranged and adapted to place a transponder chip (10; 20) between the antenna wires (200a, 200b) tensioned at an angle of substantially 90° to the conveying direction.
A vacuum cleaner head comprising an elongate transverse suction mouth on the underside thereof, a seal surrounding the suction mouth, wheel means for engaging the floor and an actuator for raising and lowering the wheel means, characterised in that the seal substantially surrounds the suction mouth, the actuator having a first position in which the wheel means and the seal are raised, a second position in which the wheel means are lowered and the seal is raised, and third position in which the wheel means and the seal are lowered.
A method for forming a fiber-reinforced thermoplastic hollow structure (100; 300), comprising: abutting a first surface (111; 311) of a first flange (112; 312; 412; 512; 612) of a shell (110; 310; 410; 510; 610) and a second surface (113; 313) of a second flange (114; 314) of the shell (110; 310; 410; 510; 610) with a mating component (120; 320); configuring an end block to restrain lateral movement of the shell (110; 310; 410; 510; 610); applying a first load to a sidewall (118; 117; 317) of the shell (110; 310; 410; 510; 610); applying a second load to the second flange (114; 314) of the shell (110; 310; 410; 510; 610); and vibrating one of the shell (110; 310; 410; 510; 610) or the mating component (120; 320) while keeping a non-vibrating component stationary, the non-vibrating component including one of the shell (110; 310; 410; 510; 610) or the mating component (120; 320) the method characterised in that a direct load is not applied to the first flange (112; 312; 412; 512; 612). abutting a first surface (111; 311) of a first flange (112; 312; 412; 512; 612) of a shell (110; 310; 410; 510; 610) and a second surface (113; 313) of a second flange (114; 314) of the shell (110; 310; 410; 510; 610) with a mating component (120; 320); configuring an end block to restrain lateral movement of the shell (110; 310; 410; 510; 610); applying a first load to a sidewall (118; 117; 317) of the shell (110; 310; 410; 510; 610); applying a second load to the second flange (114; 314) of the shell (110; 310; 410; 510; 610); and vibrating one of the shell (110; 310; 410; 510; 610) or the mating component (120; 320) while keeping a non-vibrating component stationary, the non-vibrating component including one of the shell (110; 310; 410; 510; 610) or the mating component (120; 320) the method characterised in that a direct load is not applied to the first flange (112; 312; 412; 512; 612).
Closure assembly for a beverage container, comprising at least a lid element and a closure element arranged on the lid element for closing the opening, wherein the lid element has a lid panel with an opening, a folded rim extending around the lid panel in a circumferential direction for connecting the lid element to the beverage container, and a damping bead extending circumferentially between the folded rim and the lid panel; wherein the lid element has an outside and an inside, and the opening has an opening rim and an opening plane formed by the opening rim; wherein the lid element has a connecting region which directly adjoins the opening rim, runs around the opening rim in the circumferential direction, and extends at least partially at a slope angle, wherein the slope angle can be determined in a cross-section, running perpendicularly to the opening plane and perpendicularly to the opening rim, between the opening plane and a tangent lying against the outside or the inside at the connecting region; wherein the slope angle is more than zero angular degrees; wherein the closure element with the opening rim forms a sealing face, via which the beverage container can be sealed gas-tightly against an environment; wherein the closure element is arranged on the lid element from the inside and extends at least partially over the opening to the outside; characterized in that the connecting region, starting from the lid panel surrounding the connecting region and up to the opening rim extends towards the inside of the lid element; wherein the opening rim extends into a sealing material.
A power-generating-system control device controls a turbine generator including a power turbine that is driven by exhaust gas extracted from an upstream side of a supercharger of a diesel engine; a steam turbine that is connected in series to the power turbine and is driven by steam generated by an exhaust-gas boiler using exhaust gas from the diesel engine; and a generator that is connected in series to the power turbine and the steam turbine, such that outputs of the power turbine and the steam turbine are controlled, wherein available output of the steam turbine that can be obtained from a present operating state of the diesel engine is acquired in advance as steam-turbine available output, the output of the steam turbine is determined so as to approximate the steam-turbine available output in relation to the energy demand, and the output of the power turbine is determined so as to compensate for the difference between the output of the steam turbine and the energy demand.
Compressor system for the compressed air supply of a utility vehicle, the compressor system comprising - a compressor for compressed air generation, - a transmission for the transfer of torque from an engine to the compressor, - a clutch for separating the connection between the compressor and the engine, and - a control apparatus for opening and closing the clutch, characterized in that the control apparatus is suitable for opening the clutch when an adjustable maximum permitted compressor rotational speed or engine rotational speed of the engine is overshot and for temporarily closing the open clutch while the engine rotational speed is higher than the maximum permitted engine rotational speed. - a compressor for compressed air generation, - a transmission for the transfer of torque from an engine to the compressor, - a clutch for separating the connection between the compressor and the engine, and - a control apparatus for opening and closing the clutch,
A method of determining spatial coordinates in three dimensional space, comprising obtaining initial spatial coordinate values for an object in three dimensions using a signal received from one or more markers associated with the object by an optical sensor system; separately measuring a distance to the object using a separate non-contact distance measurement device, wherein the separately measuring a distance to the object is performed separately from the obtaining initial spatial coordinate value for the object in the three dimensions; and combining the initial spatial coordinate values for the object in the three dimensions with the separately measured distance to obtain spatial coordinate values for the three dimensions, characterised in that: obtaining the initial spatial coordinate values comprises obtaining initial spatial coordinate values for three dimensions, and in that combining the initial spatial coordinate values with the measured distance comprises replacing an initial spatial coordinate value for one dimension with a new spatial coordinate value based on the separately measured distance, and in that the method further comprises: determining the presence of an ambiguity in the separately measured distance; and resolving the ambiguity using an initial spatial coordinate value to determine a value for the separately measured distance. obtaining the initial spatial coordinate values comprises obtaining initial spatial coordinate values for three dimensions, and in that combining the initial spatial coordinate values with the measured distance comprises replacing an initial spatial coordinate value for one dimension with a new spatial coordinate value based on the separately measured distance, and in that the method further comprises: determining the presence of an ambiguity in the separately measured distance; and resolving the ambiguity using an initial spatial coordinate value to determine a value for the separately measured distance. determining the presence of an ambiguity in the separately measured distance; and resolving the ambiguity using an initial spatial coordinate value to determine a value for the separately measured distance.