mhurhangee/ep-ind-claims huggingface dataset:
A transparent data display comprising: a source of light; a means for collimating said light; a means for deflecting said collimated light (110R, 110G, 110B) into a scanned beam (111R, 111G, 111B); a first array (2, 6) comprising one column containing M switchable grating elements (24A-24D) sandwiched between first and second parallel transparent substrates (25, 26), said substrates together functioning as a first light guide; a second array comprising N columns and M rows (11A-11D) of switchable grating elements sandwiched between third and fourth parallel transparent substrates (30, 31), said substrates together functioning as a second light guide; transparent electrodes applied to said first and second and said third and fourth substrates; a first coupling means for directing said scanned beam into a first total internal reflection light path (101R, 101G, 101B) between the outer surfaces of said first lightguide along said first array column; and a second coupling means linking each element of said first array to the first element of a row of elements of said second array, said switchable grating elements each having a diffracting state and a non diffracting state, each element of said first array when in its diffracting state directing light via said second coupling means into a second total internal reflection path (102R, 102G, 102B) along a row of said second array, each element of said second array in said diffracting state deflecting light through said fourth substrate. a source of light; a means for collimating said light; a means for deflecting said collimated light (110R, 110G, 110B) into a scanned beam (111R, 111G, 111B); a first array (2, 6) comprising one column containing M switchable grating elements (24A-24D) sandwiched between first and second parallel transparent substrates (25, 26), said substrates together functioning as a first light guide; a second array comprising N columns and M rows (11A-11D) of switchable grating elements sandwiched between third and fourth parallel transparent substrates (30, 31), said substrates together functioning as a second light guide; transparent electrodes applied to said first and second and said third and fourth substrates; a first coupling means for directing said scanned beam into a first total internal reflection light path (101R, 101G, 101B) between the outer surfaces of said first lightguide along said first array column; and a second coupling means linking each element of said first array to the first element of a row of elements of said second array, said switchable grating elements each having a diffracting state and a non diffracting state, each element of said first array when in its diffracting state directing light via said second coupling means into a second total internal reflection path (102R, 102G, 102B) along a row of said second array, each element of said second array in said diffracting state deflecting light through said fourth substrate.
A sheet feeding apparatus comprising: a sheet stacker configured to stack sheets; an air blower configured to blow air to the sheets; a float regulator configured to regulate a floating position of the sheets, the float regulator being movable between a float regulating position at which the float regulator regulates floating of the sheets and a retracted position; and a controller configured to transmit position information of the float regulator to a notification device, characterized in that the controller is configured to transmit the position information of the float regulator to the notification device when a feeding failure occurs to notify a user that the float regulator is not located at the correct position. a sheet stacker configured to stack sheets; an air blower configured to blow air to the sheets; a float regulator configured to regulate a floating position of the sheets, the float regulator being movable between a float regulating position at which the float regulator regulates floating of the sheets and a retracted position; and a controller configured to transmit position information of the float regulator to a notification device, characterized in that the controller is configured to transmit the position information of the float regulator to the notification device when a feeding failure occurs to notify a user that the float regulator is not located at the correct position.
A rock drilling arrangement, comprising - an impact device comprising -- a frame, -- pressure chambers (3a, 3b) in the frame, -- a piston arranged in the impact device, - a rear mounting arrangement for attaching the impact device to a carriage, the rear mounting arrangement comprising two fastening lugs having a through hole as a mounting hole and arranged perpendicular in relation to an axial direction of the piston, - a front mounting arrangement for attaching the impact device to a machine component, - at least one fore pressure accumulator arranged on front side of the rear mounting arrangement in the axial direction of the piston, and - at least one rear pressure accumulator arranged on back side of the rear mounting arrangement, - the fore pressure accumulator and the rear pressure accumulator being connected to one of the pressure chambers (3a, 3b) and arranged to absorb pressure fluctuations in said pressure chambers (3a, 3b). - an impact device comprising -- a frame, -- pressure chambers (3a, 3b) in the frame, -- a piston arranged in the impact device, -- a frame, -- pressure chambers (3a, 3b) in the frame, -- a piston arranged in the impact device, - a rear mounting arrangement for attaching the impact device to a carriage, the rear mounting arrangement comprising two fastening lugs having a through hole as a mounting hole and arranged perpendicular in relation to an axial direction of the piston, - a front mounting arrangement for attaching the impact device to a machine component, - at least one fore pressure accumulator arranged on front side of the rear mounting arrangement in the axial direction of the piston, and - at least one rear pressure accumulator arranged on back side of the rear mounting arrangement, - the fore pressure accumulator and the rear pressure accumulator being connected to one of the pressure chambers (3a, 3b) and arranged to absorb pressure fluctuations in said pressure chambers (3a, 3b).
An in-floor adapter for a cargo deck of a cargo handling system, the in-floor adapter comprising: a plate (610, 810) extending from a proximal end to a distal end, the plate having a flat surface extending from the proximal end to the distal end; a plurality of rollers disposed over a surface of the plate opposite the flat surface; a pocket (640, 840) disposed in the plate, the pocket having a sidewall and a bottom wall; a fitting (630, 830) disposed in the pocket, the fitting configured to mount a leg of a seat; and a slot (616, 816) disposed through the plate, the slot configured to guide an attachment (620, 820) mechanism during installation of the in-floor adapter in the cargo deck. a plate (610, 810) extending from a proximal end to a distal end, the plate having a flat surface extending from the proximal end to the distal end; a plurality of rollers disposed over a surface of the plate opposite the flat surface; a pocket (640, 840) disposed in the plate, the pocket having a sidewall and a bottom wall; a fitting (630, 830) disposed in the pocket, the fitting configured to mount a leg of a seat; and a slot (616, 816) disposed through the plate, the slot configured to guide an attachment (620, 820) mechanism during installation of the in-floor adapter in the cargo deck.
Method of producing metal-nanoparticle arrays, characterised in that • a colloidal dispersion of microspheres is deposited on a substrate as a densely packed monolayer via convective assembly, • after which the deposited monolayer is coated with at least one thinly deposited metal-nanoparticle layer by means of a physical deposition process, and • after which the microspheres coated with the at least one metal-nanoparticle layer and deposited on the substrate as a monolayer are removed by thermal decomposition, as a result of which the at least one metal-nanoparticle layer is sintered with the substrate. • a colloidal dispersion of microspheres is deposited on a substrate as a densely packed monolayer via convective assembly, • after which the deposited monolayer is coated with at least one thinly deposited metal-nanoparticle layer by means of a physical deposition process, and • after which the microspheres coated with the at least one metal-nanoparticle layer and deposited on the substrate as a monolayer are removed by thermal decomposition, as a result of which the at least one metal-nanoparticle layer is sintered with the substrate.
A branch controller of a system for temperature and humidity control, the system including a liquid desiccant conditioning unit for changing a temperature and a concentration of a liquid desiccant and a plurality of space conditioning units (130, 140) for controlling the temperature and the humidity in a plurality of spaces using the liquid desiccant, the branch controller comprising: a fluid control system for controlling a flow of the liquid desiccant in an arrangement of channels forming a first path for exchanging the liquid desiccant between the liquid desiccant conditioning unit and at least a first space conditioning unit and a second path for directing the liquid desiccant received from the first space conditioning unit to a second space conditioning unit; and a processor for comparing operational conditions of the first space conditioning unit and the second space conditioning unit, for selecting between the first path and the second path based on the comparison and for commanding the fluid control system to control the flow of the liquid desiccant according to the selected path. a fluid control system for controlling a flow of the liquid desiccant in an arrangement of channels forming a first path for exchanging the liquid desiccant between the liquid desiccant conditioning unit and at least a first space conditioning unit and a second path for directing the liquid desiccant received from the first space conditioning unit to a second space conditioning unit; and a processor for comparing operational conditions of the first space conditioning unit and the second space conditioning unit, for selecting between the first path and the second path based on the comparison and for commanding the fluid control system to control the flow of the liquid desiccant according to the selected path.
A brake or coupling system comprising a first piston arranged displaceably in a first piston cylinder thereby forming a first piston chamber and a second piston arranged displaceably in a second piston cylinder thereby forming a second piston chamber, the first piston being adapted to be displaced between a braking position, in which braking force is applied between a friction element and a rotatable element, and a rest position, in which the friction element is spaced from the rotatable element, the first piston being spring biased in the direction of its rest position by means of at least one spring element, and the second piston being adapted to adjust a distance provided between the friction element and the rotatable element in the rest position of the first piston by means of adjustment of a volume of hydraulic fluid trapped in the second piston chamber, wherein the at least one spring element is arranged to act between the first and second pistons (2, 8), and the first and second pistons (2, 8) are so arranged that a hydraulic pressure in the first and second piston chambers (5, 10), respectively, will urge the first and second pistons (2, 8) in opposite directions, thereby biasing the at least one spring element, wherein the first and second pistons (2, 8) are connected by means of a piston rod, and wherein the first piston is arranged at a first end of the piston rod, and the second piston is arranged at a second end of the piston rod, wherein the first piston chamber is in fluid communication with a first hydraulic fluid supply line, and a valve system is connected between the first piston chamber and the second piston chamber, and wherein the valve system is adapted to open a fluid connection between the first piston chamber and the second piston chamber, when pressure force is applied and hydraulic fluid is supplied to the first piston chamber via the first hydraulic supply line, and to close the fluid connection between the first piston chamber and the second piston chamber, when braking force is released, characterised in that the valve system is implemented into the piston rod or in that the valve system comprises a pilot valve.
Anti-lift system for a canvas covering an open-top body which defines an upper opening, with centerings adapted for supporting the canvas and able to slide on skids above the upper edge of the body's opening between - a first position in which the canvas covers the open-top body and - a second position in which the canvas is folded; the system comprising non-permanent fixing means (80, 82) that act upon a centering to anchor it to the open-top body only when it is in the first position, characterised in that the means have a configuration wherein they fixedly connect the centering only when the latter is in the first position, and a modified configuration wherein they are not an obstacle to the movement of the centerings toward the second position, the means comprising an anchoring element and a blocking arm mounted on a centering adapted for preventing it from moving upwards in the first position through engagement with the anchoring element to the open-top body, where the arm and/or the anchoring element has a variable configuration for selectively accomplishing the engagement. - a first position in which the canvas covers the open-top body and - a second position in which the canvas is folded;
A method comprising: executing a plurality of virtual machines that each operate in accordance with a virtual instruction set, wherein each of the virtual machines executes on a different one of a plurality of execution cores of a multi-core hardware processor of a computing device; associating a different one of the execution cores with each of a plurality of memory partitions, wherein each of the memory partitions stores data for an in-memory database; and executing a plurality of tasks with the virtual machines, wherein the plurality of tasks decompose an incoming transaction for the in-memory database into sub-transactions, deploy the sub-transactions to the execution cores associated with the respective memory partitions that store data for the sub-transactions, and concurrently execute the sub-transactions of the incoming transaction on the respective execution cores to which the sub-transactions are deployed. executing a plurality of virtual machines that each operate in accordance with a virtual instruction set, wherein each of the virtual machines executes on a different one of a plurality of execution cores of a multi-core hardware processor of a computing device; associating a different one of the execution cores with each of a plurality of memory partitions, wherein each of the memory partitions stores data for an in-memory database; and executing a plurality of tasks with the virtual machines, wherein the plurality of tasks decompose an incoming transaction for the in-memory database into sub-transactions, deploy the sub-transactions to the execution cores associated with the respective memory partitions that store data for the sub-transactions, and concurrently execute the sub-transactions of the incoming transaction on the respective execution cores to which the sub-transactions are deployed.
A method for reducing biofouling in a marine environment, comprising: disposing an optical device in the marine environment, wherein the optical device is directed at an object in the marine environment; obtaining an image of the object with the optical device; determining a quality of the image; characterized in that the method further comprises: determining a high power value and a high power duration based on the quality of the image; determining a low power value and a low power duration based on the quality of the image; and activate at least one ultraviolet light source for a plurality of cycles based on the high power value, the high power duration, the low power value and the low power duration, wherein the at least one ultraviolet light source is disposed proximate to the optical device and directed at the object. disposing an optical device in the marine environment, wherein the optical device is directed at an object in the marine environment; obtaining an image of the object with the optical device; determining a quality of the image; characterized in that the method further comprises: determining a high power value and a high power duration based on the quality of the image; determining a low power value and a low power duration based on the quality of the image; and activate at least one ultraviolet light source for a plurality of cycles based on the high power value, the high power duration, the low power value and the low power duration, wherein the at least one ultraviolet light source is disposed proximate to the optical device and directed at the object. determining a high power value and a high power duration based on the quality of the image; determining a low power value and a low power duration based on the quality of the image; and activate at least one ultraviolet light source for a plurality of cycles based on the high power value, the high power duration, the low power value and the low power duration, wherein the at least one ultraviolet light source is disposed proximate to the optical device and directed at the object.
A milling device for manufacturing antenna structures out of a metal layer laminated on an insulating backing with - a controlled milling cutter and with - a controller configured for monitoring and controlling the milling operation of the milling cutter interacting with a die, wherein - the milling cutter is adapted to mill at least one antenna structure out of the metal layer on a flexible product having the backing and the metal layer, while the product is guided through a milling gap between the milling cutter and the die, the device comprising: a light emitter/receiver (110, 112) configured for outputting and receiving a light strip crossing the milling gap in or transversely to a running direction of the product, wherein a transverse dimension of the light strip is characteristic of the width of the milling gap between the milling cutter and the die, and wherein the light receiver is adapted to output a signal (S1...S3) reproducing the width of the milling gap to the controller, and wherein the controller is adapted to output an adjusting signal (P1, P2) at least to an adjusting drive (160, 162) that influences the width of the milling gap between the milling cutter and the die. - a controlled milling cutter and with - a controller configured for monitoring and controlling the milling operation of the milling cutter interacting with a die, wherein - the milling cutter is adapted to mill at least one antenna structure out of the metal layer on a flexible product having the backing and the metal layer, while the product is guided through a milling gap between the milling cutter and the die, the device comprising: a light emitter/receiver (110, 112) configured for outputting and receiving a light strip crossing the milling gap in or transversely to a running direction of the product, wherein a transverse dimension of the light strip is characteristic of the width of the milling gap between the milling cutter and the die, and wherein the light receiver is adapted to output a signal (S1...S3) reproducing the width of the milling gap to the controller, and wherein the controller is adapted to output an adjusting signal (P1, P2) at least to an adjusting drive (160, 162) that influences the width of the milling gap between the milling cutter and the die.
A method of treating a subterranean formation, the method comprising: placing in a subterranean formation a nanoparticle composition comprising: a coated nanoparticle comprising a nanoparticle and a cross-linked carbohydrate-based coating wherein the cross-linked carbohydrate-based coating comprises a polysaccharide; and an ion selected from the group consisting of Li +, Na +, K +, Rb +, Cs +, Be 2+, Mg 2+, Ca 2+, Sr 2+, Ba 2+, and mixtures thereof, wherein the cross-linked carbohydrate-based coating is the reaction product of a cross-linking reaction between an epoxide-based compound and a carbohydrate, and wherein the cross-linked carbohydrate-based coating is a reaction product of quenching reaction between unreacted epoxides of the cross-linked carbohydrate-based coating and an amine-functionalized compound. placing in a subterranean formation a nanoparticle composition comprising: a coated nanoparticle comprising a nanoparticle and a cross-linked carbohydrate-based coating wherein the cross-linked carbohydrate-based coating comprises a polysaccharide; and an ion selected from the group consisting of Li +, Na +, K +, Rb +, Cs +, Be 2+, Mg 2+, Ca 2+, Sr 2+, Ba 2+, and mixtures thereof, a coated nanoparticle comprising a nanoparticle and a cross-linked carbohydrate-based coating wherein the cross-linked carbohydrate-based coating comprises a polysaccharide; and an ion selected from the group consisting of Li +, Na +, K +, Rb +, Cs +, Be 2+, Mg 2+, Ca 2+, Sr 2+, Ba 2+, and mixtures thereof, wherein the cross-linked carbohydrate-based coating is the reaction product of a cross-linking reaction between an epoxide-based compound and a carbohydrate, and wherein the cross-linked carbohydrate-based coating is a reaction product of quenching reaction between unreacted epoxides of the cross-linked carbohydrate-based coating and an amine-functionalized compound.
A scanning system adaptor apparatus for use in repairing or upgrading a scanning and sorting system by replacing a legacy camera originally within the scanning and sorting system with a new higher resolution camera, the scanning and sorting system useful for performing a sorting task such as the scanning and sorting a large plurality of items to be scanned and sorted, each item with an address label that is utilized as a basis for order of the sorting, the sorting equipment including legacy image processing equipment for processing legacy format images sent from the legacy camera in a legacy data format and resolution, the scanning system adaptor apparatus comprising: a) a first connector providing for connection of the new higher resolution camera to the adaptor apparatus and for providing through this connection higher resolution image data from the new higher resolution camera to the adaptor apparatus; b) an image format conversion apparatus for converting the higher resolution image data received from the new higher resolution camera into reduced resolution legacy compatible images, the format of the reduced resolution compatible images being compatible for processing by the legacy image data processing equipment; and, c) a second connector for connection of the adaptor apparatus to the legacy image processing system and enabling sending of the reduced resolution legacy compatible images from the adaptor apparatus to the legacy image processing system. a) a first connector providing for connection of the new higher resolution camera to the adaptor apparatus and for providing through this connection higher resolution image data from the new higher resolution camera to the adaptor apparatus; b) an image format conversion apparatus for converting the higher resolution image data received from the new higher resolution camera into reduced resolution legacy compatible images, the format of the reduced resolution compatible images being compatible for processing by the legacy image data processing equipment; and, c) a second connector for connection of the adaptor apparatus to the legacy image processing system and enabling sending of the reduced resolution legacy compatible images from the adaptor apparatus to the legacy image processing system.