mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a foldable screen; one or more sensors configured to determine a fold angle of the foldable screen; and means for performing: determining a configuration of the foldable screen (10, 32, 52), wherein the configuration of the foldable screen (10, 32, 52) comprises the fold angle; determining or retrieving geometric distortion information for the foldable screen (10, 32, 52) based on the determined configuration; identifying potentially problematic sources of reflection (38, 39, 56) from a scene around the apparatus based, at least in part, on the determined configuration and the geometric distortion information; and compensating for said potentially problematic sources of reflection (38, 39, 56). a foldable screen; one or more sensors configured to determine a fold angle of the foldable screen; and means for performing: determining a configuration of the foldable screen (10, 32, 52), wherein the configuration of the foldable screen (10, 32, 52) comprises the fold angle; determining or retrieving geometric distortion information for the foldable screen (10, 32, 52) based on the determined configuration; identifying potentially problematic sources of reflection (38, 39, 56) from a scene around the apparatus based, at least in part, on the determined configuration and the geometric distortion information; and compensating for said potentially problematic sources of reflection (38, 39, 56). determining a configuration of the foldable screen (10, 32, 52), wherein the configuration of the foldable screen (10, 32, 52) comprises the fold angle; determining or retrieving geometric distortion information for the foldable screen (10, 32, 52) based on the determined configuration; identifying potentially problematic sources of reflection (38, 39, 56) from a scene around the apparatus based, at least in part, on the determined configuration and the geometric distortion information; and compensating for said potentially problematic sources of reflection (38, 39, 56).
An acoustic echo canceller comprising: an adaptive filter comprising: a linear filter having a transfer function controlled by a set of variable filter coefficients and configured to cancel an estimate of echo in a microphone signal to provide an output signal, and a coefficient calculator configured to update the set of variable filter coefficients based on a variable adaptation rate; and a double-talk detector configured to calculate changes in the energy of the variable filter coefficients by computing an energy difference between current and immediate past sets of filter coefficients, wherein the acoustic echo canceller is configured to adjust the variable adaptation rate based on the energy of the variable filter coefficients, wherein the double-talk detector is configured to determine a trend of the energy of the variable filter coefficients based on signs of the energy difference and to compare a magnitude of the trend to a threshold value, and wherein the acoustic echo canceller is configured to adjust the adaptation rate based on the comparison. a linear filter having a transfer function controlled by a set of variable filter coefficients and configured to cancel an estimate of echo in a microphone signal to provide an output signal, and a coefficient calculator configured to update the set of variable filter coefficients based on a variable adaptation rate; and a double-talk detector configured to calculate changes in the energy of the variable filter coefficients by computing an energy difference between current and immediate past sets of filter coefficients, wherein the acoustic echo canceller is configured to adjust the variable adaptation rate based on the energy of the variable filter coefficients, wherein the double-talk detector is configured to determine a trend of the energy of the variable filter coefficients based on signs of the energy difference and to compare a magnitude of the trend to a threshold value, and wherein the acoustic echo canceller is configured to adjust the adaptation rate based on the comparison.
Writing element for a writing instrument comprising an elongated member or stem having a grip portion longitudinally delimited by an end portion; said stem having a longitudinal cavity of given extension; said writing element having a body delimited by an end provided with a point suitable, in use, to draw signs on paper through oxidation; said body having an elongated coupling portion provided with respective connecting means suitable to engage said cavity; characterized in that said end is covered by a cover comprising said point and made of a bi-component metal alloy comprising bismuth and tin.
A valve housing (1, 2) for a measuring device, which valve housing comprises a valve assembly and a mounting flange assembly, which mounting flange assembly comprises a mounting flange attachable to a pipe section, said valve assembly comprising a valve body, wherein the valve body has a bottom surface that is arranged to define a boundary surface of a process, said bottom surface comprising an opening towards said process, said valve assembly further having a centre segment with a probe cavity therethrough for receiving a measuring device, and closing means for opening and closing said valve, wherein a direction locking flange is mounted to said mounting flange assembly, said valve body is rotatably mounted in said mounting flange assembly, and the direction locking flange is arranged for locking the valve body in position in the mounting flange with the opening of the valve body being arranged at a desired angle β with respect to a reference axis perpendicular to a centre axis which extends through said centre segment and which centre axis is normal to the plane of the mounting flange, and said centre segment is rotationally mounted in said valve body and the movement for opening/closing said valve is a rotary movement of said centre segment around the centre axis.
A S. pyogenes Cas9 specific single-molecule guide RNA comprising at least a spacer sequence that is an RNA sequence corresponding to any one of SEQ ID NOS: 34621, 34565, 34606, 54554, 34437, 34563, 54418, 34632, 34446, 54409, 54671, 54693, 54539, 54408, 54555, 54694, 34505 or 54695.
A module for constructing therefrom a heat exchanger, the module comprising: • two manifolds; and • a plurality of parallely arranged mats spanning between the manifolds, each mat comprising a plurality of heat exchange tubes arranged so as to define a plane, the plurality of tubes comprising one extreme tube at each end of the plane, said heat exchange tubes being in fluid communication with the manifolds and spanning therebetween, wherein at least one of the manifolds comprises a division arrangement configured to facilitate selectively fluidly isolating one or more of said mats from the tubes of the other mats; the tubes in each mat being spaced from one another giving rise to gaps therebetween; and a majority of the gaps in each mat are of the same size, characterised in that each of said mats further comprising one or more auxiliary gaps of a different size, wherein said auxiliary gaps are formed adjacent to one of said extreme tubes, and wherein said mats are arranged such that the one or more auxiliary gaps of adjacent mats are on alternate sides thereof from one another, such that the extreme tubes of adjacent mats are not offset with respect to each other, and the remaining tubes of adjacent mats are offset with respect to each other. • two manifolds; and • a plurality of parallely arranged mats spanning between the manifolds, each mat comprising a plurality of heat exchange tubes arranged so as to define a plane, the plurality of tubes comprising one extreme tube at each end of the plane, said heat exchange tubes being in fluid communication with the manifolds and spanning therebetween, wherein at least one of the manifolds comprises a division arrangement configured to facilitate selectively fluidly isolating one or more of said mats from the tubes of the other mats; the tubes in each mat being spaced from one another giving rise to gaps therebetween; and a majority of the gaps in each mat are of the same size, characterised in that each of said mats further comprising one or more auxiliary gaps of a different size, wherein said auxiliary gaps are formed adjacent to one of said extreme tubes, and wherein said mats are arranged such that the one or more auxiliary gaps of adjacent mats are on alternate sides thereof from one another, such that the extreme tubes of adjacent mats are not offset with respect to each other, and the remaining tubes of adjacent mats are offset with respect to each other.
System comprising a wind turbine comprising a nacelle, rotor with its corresponding blades and a tower that supports said elements, characterized in that the system has at least three lifting systems arranged peripherally at the tower foundation or on a retractable offshore platform, each lifting system externally containing a lifting platform that rises and descends from a lower or upper point, and a base connected through a joint structure to the remaining bases, and in that the system comprises an auxiliary column and different connection parts, being a connection flange, a connection part, a truncated-cone connection part and a direct offshore connection part, the lifting platform works by anchoring itself directly to the nacelle or through the auxiliary column that cooperates with the different connection parts, lifting or lowering the successive tower modules, and supporting them from this connection.
A data center power system, comprising: an electrical power conductor that comprises a live conductor surface and is configured to carry direct current power from a power source through a human-occupiable workspace of a data center; a grounded conductor positioned in the human-occupiable workspace apart from the electrical power conductor; a first electrical connector configured to mount to a data center rack that supports a plurality of electronic devices, the first electrical connector moveable to electrically contact the live conductor surface of the electrical power conductor; a second electrical conductor positioned on the rack and configured to electrically contact the grounded conductor, wherein at least a portion of the live conductor surface is exposed to the human-occupiable workspace, and wherein the live conductor surface comprises a rail configured to mount to a floor of the data center, and the first electrical connector is configured to mount to a bottom portion of the data center rack. an electrical power conductor that comprises a live conductor surface and is configured to carry direct current power from a power source through a human-occupiable workspace of a data center; a grounded conductor positioned in the human-occupiable workspace apart from the electrical power conductor; a first electrical connector configured to mount to a data center rack that supports a plurality of electronic devices, the first electrical connector moveable to electrically contact the live conductor surface of the electrical power conductor; a second electrical conductor positioned on the rack and configured to electrically contact the grounded conductor, a grounded conductor positioned in the human-occupiable workspace apart from the electrical power conductor; a first electrical connector configured to mount to a data center rack that supports a plurality of electronic devices, the first electrical connector moveable to electrically contact the live conductor surface of the electrical power conductor; a second electrical conductor positioned on the rack and configured to electrically contact the grounded conductor, wherein at least a portion of the live conductor surface is exposed to the human-occupiable workspace, and wherein the live conductor surface comprises a rail configured to mount to a floor of the data center, and the first electrical connector is configured to mount to a bottom portion of the data center rack.
A method for producing a honeycomb structure comprising a columnar body having a plurality of holes that are open at an end surface of the columnar body, the method comprising: a center closing step of inserting a center closing jig into a part of a plurality of through-holes at the center of an end surface in a green honeycomb molded body in which a plurality of through-holes mutually partitioned by partition walls are open at the end surface of a columnar body to join the partition walls to each other, thereby closing the through-holes at the center of the end surface; characterized in that the method comprises an outer periphery closing step of closing through-holes at an outer periphery of the end surface of the green honeycomb molded body by an outer periphery closing jig that is a cylindrical jig having an inner peripheral surface with the inner diameter being continuously reduced from one end to the other end, by pressing the outer periphery of the end surface by the inner peripheral surface to collapse the through-holes at the outer periphery, thereby closing the through-holes at the outer periphery of the end surface. a center closing step of inserting a center closing jig into a part of a plurality of through-holes at the center of an end surface in a green honeycomb molded body in which a plurality of through-holes mutually partitioned by partition walls are open at the end surface of a columnar body to join the partition walls to each other, thereby closing the through-holes at the center of the end surface; characterized in that the method comprises an outer periphery closing step of closing through-holes at an outer periphery of the end surface of the green honeycomb molded body by an outer periphery closing jig that is a cylindrical jig having an inner peripheral surface with the inner diameter being continuously reduced from one end to the other end, by pressing the outer periphery of the end surface by the inner peripheral surface to collapse the through-holes at the outer periphery, thereby closing the through-holes at the outer periphery of the end surface.
A continuous vapor phase olefin polymerization process comprising polymerization of at least one olefin monomer in at least two serial vapor phase polymerization reactors containing an agitated bed of forming polymer particles, wherein forming polymer particles are transferred from an upstream reactor to a downstream reactor through sequentially a gas-solid separator and a pressure transfer chamber, wherein the upstream reactor is a horizontal stirred reactor containing multiple reaction zones, each reaction zone having at least one inlet for a gaseous stream and optionally additionally an inlet for a liquid stream and, wherein one reaction zone comprised in the upstream reactor vessel is a polymer discharge reaction zone from which forming polymer particles are discharged and subsequently transported to the downstream reactor and wherein the ratio of the hydrogen concentration to the olefin monomer concentration in the polymer discharge reaction zone ([H 2] discharge zone /[Olefin monomer] discharge zone) is reduced compared to the ratio of the hydrogen concentration to the olefin monomer concentration in the preceding reactor zone ([H 2] preceding zone /[Olefin monomer] preceding zone), wherein one or more liquid streams to one or more reaction zones and/or one or more gaseous streams to one or more reaction zones are controlled to achieve the desired ratios of the hydrogen concentration to the olefin monomer concentration in the reaction zones.. wherein forming polymer particles are transferred from an upstream reactor to a downstream reactor through sequentially a gas-solid separator and a pressure transfer chamber, wherein the upstream reactor is a horizontal stirred reactor containing multiple reaction zones, each reaction zone having at least one inlet for a gaseous stream and optionally additionally an inlet for a liquid stream and, wherein one reaction zone comprised in the upstream reactor vessel is a polymer discharge reaction zone from which forming polymer particles are discharged and subsequently transported to the downstream reactor and wherein the ratio of the hydrogen concentration to the olefin monomer concentration in the polymer discharge reaction zone ([H 2] discharge zone /[Olefin monomer] discharge zone) is reduced compared to the ratio of the hydrogen concentration to the olefin monomer concentration in the preceding reactor zone ([H 2] preceding zone /[Olefin monomer] preceding zone), wherein one or more liquid streams to one or more reaction zones and/or one or more gaseous streams to one or more reaction zones are controlled to achieve the desired ratios of the hydrogen concentration to the olefin monomer concentration in the reaction zones..
A device for remote oil detection comprising the following components: (a) an external housing comprising an outlet window through which air can exhaust when the outlet window is open; (b) an internal housing; (c) a laser emitter module to sense water and induce oil fluorescence; (d) a receiving module comprising an optical telescope and spectral detection block to detect a laser induced fluorescence spectrum of an echo-signal; (e) a microcontroller module to control device operation and digitize received spectral data; and (f) a data processing, storage and communication module for data analysis and reporting, characterized in that the internal housing is disposed within the external housing, and is hermetically sealed and has an optical window, and wherein the laser module, receiving module and microcontroller module are disposed in the hermetically sealed internal housing, wherein the external housing has an ambient air intake, mist removal system, and heater with temperature sensor to keep the operational temperature of the device at a preset level, wherein the components (a)-(e) are disposed with respect to one another such that a laser beam emitted by the laser module and a fluorescence signal received by the receiving module can pass through both the optical window and outlet window and such that, when air is pumped through the ambient air intake at higher than atmosphere pressure, the air circulates through the external housing and exhausts through the outlet window, and wherein the data processing, storage and communication module is physically separated from the components (a)-(e) of the device and is connected with the microcontroller module via a cable for digital data transmission. (a) an external housing comprising an outlet window through which air can exhaust when the outlet window is open; (b) an internal housing; (c) a laser emitter module to sense water and induce oil fluorescence; (d) a receiving module comprising an optical telescope and spectral detection block to detect a laser induced fluorescence spectrum of an echo-signal; (e) a microcontroller module to control device operation and digitize received spectral data; and (f) a data processing, storage and communication module for data analysis and reporting,
A method of manufacturing a thick steel plate having excellent low-temperature strain aging impact properties, comprising: reheating a steel slab consisting of, by weight, C: 0.04 to 0. 08%, Si: 0.05 to 0.4%, Mn: 1.0 to 2.0%, P: 0.01% or less, S: 0.003% or less, Al: 0.015 to 0.04%, Ti: 0.005 to 0.02%, Cu: 0.35% or less, excluding 0, Ni: 0.05 to 0.8%, Nb: 0.003 to 0.03%, N: 0.002 to 0.008%, Ca: 0.0002 to 0.0050%, Cr: 0.009% or less, Mo: 0.0009% or less, a balance of Fe and other inevitable impurities, at 1020 to 1150°C; performing a recrystallization zone rolling operation of the reheated steel slab in 5 passes or fewer, including 0 passes, to obtain a bar; performing a non-recrystallization zone rolling operation on the bar at Ar3 or higher to obtain a hot-rolled steel material, wherein a reduction amount in the non-recrystallization zone rolling operation is 90% or more, including 100%, of the sum of a reduction amount in the recrystallization zone rolling operation and the reduction amount in the non-recrystallization zone rolling operation; and cooling the hot-rolled steel material to 300 to 500°C at a cooling rate of 2 to 15°C/s, after the non-recrystallization zone rolling operation. reheating a steel slab consisting of, by weight, C: 0.04 to 0. 08%, Si: 0.05 to 0.4%, Mn: 1.0 to 2.0%, P: 0.01% or less, S: 0.003% or less, Al: 0.015 to 0.04%, Ti: 0.005 to 0.02%, Cu: 0.35% or less, excluding 0, Ni: 0.05 to 0.8%, Nb: 0.003 to 0.03%, N: 0.002 to 0.008%, Ca: 0.0002 to 0.0050%, Cr: 0.009% or less, Mo: 0.0009% or less, a balance of Fe and other inevitable impurities, at 1020 to 1150°C; performing a recrystallization zone rolling operation of the reheated steel slab in 5 passes or fewer, including 0 passes, to obtain a bar; performing a non-recrystallization zone rolling operation on the bar at Ar3 or higher to obtain a hot-rolled steel material, wherein a reduction amount in the non-recrystallization zone rolling operation is 90% or more, including 100%, of the sum of a reduction amount in the recrystallization zone rolling operation and the reduction amount in the non-recrystallization zone rolling operation; and cooling the hot-rolled steel material to 300 to 500°C at a cooling rate of 2 to 15°C/s, after the non-recrystallization zone rolling operation.
Composition for a filler mastic comprising from 0.001 % to 10% by weight organic fibres and 10 to 70% by weight pounded-glass grains with a mean particle size of 0 to 3 mm, with respect to the total weight of the composition, wherein said organic fibres are selected from polyvinyl alcohol fibres, polyacrylonitrile fibres, polyethylene fibres, high-density polyethylene (HDPE) fibres, polypropylene fibres, polyamide or polyimide fibres, aramid fibres, cellulose, silk, linen, cotton, bamboo, viscose or cellulose acetate fibres, chlorofibres, polylactic acid fibres, polyester fibres, polyacrylic or polymodacrylic fibres, polybenzimidazol fibres, polyphenol fibres, polyurea and polyurethane fibres, and mixtures thereof.