mhurhangee/ep-ind-claims huggingface dataset:
A method performed by an optical transmitter for transmitting data over and monitoring of a fibre cable with a single optical frequency, the method comprising: generating at least a first optical carrier and a second optical carrier at a same optical frequency; generating an electromagnetic monitoring signal; modulating the first optical carrier with the generated electromagnetic monitoring data signal to create an optical monitoring signal; modulating the second optical carrier with a generated electromagnetic data signal to create an optical data signal; combining the optical monitoring signal and the optical data signal in orthogonal polarization modes; transmitting the combined optical monitoring signal and the optical data signal over the fibre cable to be monitored; monitoring the fibre cable by detecting the optical monitoring signal being backscattered from the fibre cable. generating at least a first optical carrier and a second optical carrier at a same optical frequency; generating an electromagnetic monitoring signal; modulating the first optical carrier with the generated electromagnetic monitoring data signal to create an optical monitoring signal; modulating the second optical carrier with a generated electromagnetic data signal to create an optical data signal; combining the optical monitoring signal and the optical data signal in orthogonal polarization modes; transmitting the combined optical monitoring signal and the optical data signal over the fibre cable to be monitored; monitoring the fibre cable by detecting the optical monitoring signal being backscattered from the fibre cable.
A process for producing a biolatex conjugate composition, the process comprising: feeding biopolymer feedstock, at least one plasticizer and at least one additive to a feed zone of an extruder having a screw configuration such that the biopolymer feedstock, the at least one plasticizer and the at least one additive are processed under shear forces in the extruder to form a biopolymer-additive complex; and adding a crosslinking agent to the biopolymer-additive complex, thereby producing a biolatex conjugate composition. feeding biopolymer feedstock, at least one plasticizer and at least one additive to a feed zone of an extruder having a screw configuration such that the biopolymer feedstock, the at least one plasticizer and the at least one additive are processed under shear forces in the extruder to form a biopolymer-additive complex; and adding a crosslinking agent to the biopolymer-additive complex, thereby producing a biolatex conjugate composition.
A prefabricated wall module comprising a series/plurality of lattices (5, 6), said series of lattices: a) Defining at least one slot accommodating a panel b) Defining a grid along an outer surface of said wall module, characterised in that at least one end-standing lattice -positioned at an outer transversal edge- of said wall module is structurally different than one or more of the other lattices in the wall module. a) Defining at least one slot accommodating a panel b) Defining a grid along an outer surface of said wall module,
A method performed by a terminal (3L-01) in a wireless communication system, the method comprising: receiving (3L-05) a first radio resource control, RRC, connection release message including paging area information; transmitting (3L-40) an RRC connection resume request message including a resume cause set to an update of a paging area, in case that the terminal (3L-01) is in an RRC inactive state and the update of the paging area is required based on the paging area information, wherein the update of the paging area is required in case that the terminal (3L-01) enters an area not belonging to the paging area configured by the paging area information; receiving (3L-60) a second RRC connection release message including new paging area information; and applying the new paging area information included in the second RRC connection release message. receiving (3L-05) a first radio resource control, RRC, connection release message including paging area information; transmitting (3L-40) an RRC connection resume request message including a resume cause set to an update of a paging area, in case that the terminal (3L-01) is in an RRC inactive state and the update of the paging area is required based on the paging area information, wherein the update of the paging area is required in case that the terminal (3L-01) enters an area not belonging to the paging area configured by the paging area information; receiving (3L-60) a second RRC connection release message including new paging area information; and applying the new paging area information included in the second RRC connection release message.
A method of monitoring condition of a shock strut, the method comprising: sensing gas temperature, gas pressure, and stroke of the shock strut during a landing event; determining oil loss based upon a deviation of a transient pressure coefficient α(s 1, s 2) derived from a ratio of P gas (s 1)/P gas (S 2) transient gas pressures at two different strokes s 1, s 2 from a nominal coefficient value α 0 (s 1, s 2); determining gas loss based upon temperature adjusted transient gas pressure at a selected stroke and a nominal gas pressure value at the selected stroke; and providing an output indicating need for service of the shock strut based upon the oil loss and the gas loss. sensing gas temperature, gas pressure, and stroke of the shock strut during a landing event; determining oil loss based upon a deviation of a transient pressure coefficient α(s 1, s 2) derived from a ratio of P gas (s 1)/P gas (S 2) transient gas pressures at two different strokes s 1, s 2 from a nominal coefficient value α 0 (s 1, s 2); determining gas loss based upon temperature adjusted transient gas pressure at a selected stroke and a nominal gas pressure value at the selected stroke; and providing an output indicating need for service of the shock strut based upon the oil loss and the gas loss.
An artificial nipple, which is a molded product made of an elastic material such as a soft resin and configured overall as a substantially conical hollow body, the artificial nipple comprising: a base section that widens to match an attachment object; an areola section that is formed contiguously to the base section and that extends while narrowing gradually; and a nipple section that extends from the areola section without widening halfway up to a tip and while narrowing slightly and gradually at a diameter-narrowing rate that is smaller than the diameter-narrowing rate of the areola section, wherein the areola section has a wall thickness greater than that of the nipple section, and a wall thickness at a boundary between the areola section and the nipple section is smaller than that of the areola section but greater than that of the nipple section, as a result of which a band-like weakened section is formed along the circumference of that site, characterized in that a rib extending in a longitudinal direction is formed on an inner face of the nipple section, overlapping with the upper portion of the band-like weakened section, wherein the height (dimension of inward protrusion) of the rib is small at the top, and large at the bottom. a base section that widens to match an attachment object; an areola section that is formed contiguously to the base section and that extends while narrowing gradually; and a nipple section that extends from the areola section without widening halfway up to a tip and while narrowing slightly and gradually at a diameter-narrowing rate that is smaller than the diameter-narrowing rate of the areola section, wherein the areola section has a wall thickness greater than that of the nipple section, and a wall thickness at a boundary between the areola section and the nipple section is smaller than that of the areola section but greater than that of the nipple section, as a result of which a band-like weakened section is formed along the circumference of that site, characterized in that a rib extending in a longitudinal direction is formed on an inner face of the nipple section, overlapping with the upper portion of the band-like weakened section, wherein the height (dimension of inward protrusion) of the rib is small at the top, and large at the bottom.
An air handling assembly comprising a first air duct for exhaust air to be cooled comprising an air inlet opening and an air outlet opening, a second air duct for supply air to be heated comprising an air inlet opening and an air outlet opening, as well as a heat recovery system fitted in connection with the first and second air ducts, in the area between their inlet openings and outlet openings, arranged to transfer heat between the air flow to be heated and the air flow to be cooled flowing in the air ducts (12, 14), as well as a heat pump assembly, wherein the heat pump assembly comprises a first heat exchanger unit arranged to cool the air flowing in the first air duct for exhaust air, and that the first heat exchanger unit is fitted in connection with the first air duct at a location downstream of the heat recovery system, in the direction of air flow, and that the heat pump assembly comprises a second heat exchanger unit, characterized in that the second heat exchanger unit is arranged to heat the air flowing in the first air duct for exhaust air, and in that the second heat exchanger unit is fitted in connection with the first air duct at a location upstream of the heat recovery system, in the direction of air flow.
An apparatus for reducing or correcting for the inter-symbol interference of a signal modulated using a modulation scheme, comprising: a first circuit (325-a; 405-a; 810-a) configured to determine, for a first sampling event associated with a rising edge of a clock signal, a first voltage level of a signal modulated using the modulation scheme that includes three or more voltage levels; a second circuit (325-b; 405-b; 810-b) comprising a first feedback circuit (330-b; 415-b; 815-b) coupled with an output of the first circuit (325-a; 405-a; 810-a), the first feedback circuit (330-b; 415-b; 815-b) configured to receive, from the first circuit (325-a; 405-a; 810-a), a feedback signal (350-a; 430-a,b,c; 835-a) indicating information about the first voltage level of the first sampling event, and the first feedback circuit (330-b; 415-b; 815-b) further configured to modify the signal input into the second circuit (325-b; 405-b; 810-b) based at least in part on the feedback signal (350-a; 430-a,b,c; 835-a); and the second circuit (325-b; 405-b; 810-b) configured to determine, for a second sampling event associated with a falling edge of the clock signal, a second voltage level of the signal based at least in part on the modified signal. a first circuit (325-a; 405-a; 810-a) configured to determine, for a first sampling event associated with a rising edge of a clock signal, a first voltage level of a signal modulated using the modulation scheme that includes three or more voltage levels; a second circuit (325-b; 405-b; 810-b) comprising a first feedback circuit (330-b; 415-b; 815-b) coupled with an output of the first circuit (325-a; 405-a; 810-a), the first feedback circuit (330-b; 415-b; 815-b) configured to receive, from the first circuit (325-a; 405-a; 810-a), a feedback signal (350-a; 430-a,b,c; 835-a) indicating information about the first voltage level of the first sampling event, and the first feedback circuit (330-b; 415-b; 815-b) further configured to modify the signal input into the second circuit (325-b; 405-b; 810-b) based at least in part on the feedback signal (350-a; 430-a,b,c; 835-a); and the second circuit (325-b; 405-b; 810-b) configured to determine, for a second sampling event associated with a falling edge of the clock signal, a second voltage level of the signal based at least in part on the modified signal.
Wind turbine rotor blade, with at least one heating unit for heating at least a portion of the rotor blade, the heating unit having at least one optical waveguide (320, 330) as a heating element when energy in the form of electromagnetic waves or beams is coupled into the optical waveguides (320, 330) and is converted into heat on the basis of an attenuation of the optical waveguides (320, 330), wherein an attenuation of the optical waveguides (320, 330) being set such that at least part of the coupled-in energy of the electromagnetic waves, in particular light, is converted into heat, in order to heat up the rotor blade.
A color image forming apparatus configured to perform print processing corresponding to each of a plurality of three or more print modes, each print mode corresponding to a recording material type, said image forming apparatus comprising: forming means arranged to form a color patch on a recording material in any one of said print modes; a color detector arranged to detect color information of the patch formed on said recording material before said recording material is ejected and stacked; setting means arranged to set an image forming condition for said any one of said print modes based on the detection result by said color detector; wherein said setting means is further arranged to set an image forming condition for at least two of the plurality of three or more print modes, other than said any one of said print modes, based on the detection result of the patch formed on the recording material in said any one of said print modes by said color detector. forming means arranged to form a color patch on a recording material in any one of said print modes; a color detector arranged to detect color information of the patch formed on said recording material before said recording material is ejected and stacked; setting means arranged to set an image forming condition for said any one of said print modes based on the detection result by said color detector; wherein said setting means is further arranged to set an image forming condition for at least two of the plurality of three or more print modes, other than said any one of said print modes, based on the detection result of the patch formed on the recording material in said any one of said print modes by said color detector.
A method for executing a global memory command in a multi-chip non-volatile memory device having a plurality of parallel connected non-volatile memories, each non-volatile memory having respective identification information, comprising: receiving concurrently the global memory command by first, second and third memories of the plurality of non-volatile memories; executing the memory command by a first memory of the plurality of non-volatile memories in response to receiving the memory command; measuring by a second memory of the plurality of non-volatile memories the passing of a first time delay associated with the identification information of the second memory; executing the memory command by the second memory of the plurality of non-volatile memories after the first time delay from receiving the memory command; measuring by a third memory of the plurality of non-volatile memories the passing of a second time delay associated with the identification information of the third memory; and executing the memory command by the third memory of the plurality of non-volatile memories after the second time delay from receiving the memory command, the second time delay greater than the first time delay. receiving concurrently the global memory command by first, second and third memories of the plurality of non-volatile memories; executing the memory command by a first memory of the plurality of non-volatile memories in response to receiving the memory command; measuring by a second memory of the plurality of non-volatile memories the passing of a first time delay associated with the identification information of the second memory; executing the memory command by the second memory of the plurality of non-volatile memories after the first time delay from receiving the memory command; measuring by a third memory of the plurality of non-volatile memories the passing of a second time delay associated with the identification information of the third memory; and executing the memory command by the third memory of the plurality of non-volatile memories after the second time delay from receiving the memory command, the second time delay greater than the first time delay.
A composition comprising (a) at least one mRNA molecule at least a portion of which encodes a functional secreted polypeptide, wherein the secreted polypeptide is alpha-galactosidase; and (b) a liposomal transfer vehicle comprising a lipid nanoparticle comprising one or more cationic lipids, one or more non-cationic lipids and one or more PEG-modified lipids for use in a method of treating a subject having a defect or deficiency in said secreted polypeptide, wherein the lipid nanoparticle comprises a liposome, wherein the liposome encapsulates the at least one mRNA, and wherein the composition is administered by intravenous delivery.
Device for bending bar-like workpieces, such as wire, tubes, rods or the like, having a machine frame, a workpiece feed and a bending head mounted on a pivot arm (6; 16) which is movable relative to said pivot arm, wherein the pivot arm (6; 16) is controllably pivotable relative to the machine frame and the bending head is controllably pivotable relative to the pivot arm (6; 16) in each case about at least one rotary axis (10, 12, 23, 24) running parallel to the direction (x) of the workpiece feed, characterised in that the rotary axis of the swivel arm is designed as an eccentric pin of an eccentric shaft or as a pin on a rotatable swivel arm, which in turn is rotatably mounted on the machine frame about a central axis running parallel to the feed direction (x) of the workpieces.
A method for manufacturing an aerogel sheet, the method comprising: a step (a) of preparing a silica precursor by mixing silica sol and a surface modifying agent; a step (b) of preparing a gelling catalyst by mixing ethanol and ammonia water (NH 4 OH); a step (c) of spraying the silica precursor prepared in the step (a) to a surface of a blanket to impregnate the blanket with the silica precursor and a step (d) of spraying the gelling catalyst prepared in the step (b) to the surface of the blanket impregnated in the silica precursor to gelate the silica precursor, wherein the step (c) and the step (d) are performed within a conveyor belt that transfers the blanket from one side to the other side thereof and wherein the conveyor belt comprises a scraper comprising a first scraper adjusting a thickness of the silica precursor sprayed to the surface of the blanket and a second scraper adjusting a thickness of the gelling catalyst sprayed to the surface of the blanket, the method, after the step (d), further comprising a step (e) of aging the blanket in which the silica precursor is gelated, and after the step (e), further comprising a step (f) of drying the blanket in which the aging is completed. a step (a) of preparing a silica precursor by mixing silica sol and a surface modifying agent; a step (b) of preparing a gelling catalyst by mixing ethanol and ammonia water (NH 4 OH); a step (c) of spraying the silica precursor prepared in the step (a) to a surface of a blanket to impregnate the blanket with the silica precursor and a step (d) of spraying the gelling catalyst prepared in the step (b) to the surface of the blanket impregnated in the silica precursor to gelate the silica precursor, wherein the step (c) and the step (d) are performed within a conveyor belt that transfers the blanket from one side to the other side thereof and wherein the conveyor belt comprises a scraper comprising a first scraper adjusting a thickness of the silica precursor sprayed to the surface of the blanket and a second scraper adjusting a thickness of the gelling catalyst sprayed to the surface of the blanket, the method, after the step (d), further comprising a step (e) of aging the blanket in which the silica precursor is gelated, and after the step (e), further comprising a step (f) of drying the blanket in which the aging is completed.
An arboriculture safety user interface device comprising at least one sensor of which at least one is a fall sensor, a controller, alerting means, and a communication interface enabling communication between the arboriculture safety user interface device and at least one other arboriculture safety user interface device, the arboriculture safety user interface device being configured to: establish a communication connection with the at least one other arboriculture safety user interface device; and detect that a fall event has taken place by receiving data from the other arboriculture safety user interface device to that effect, indicating that a user of the another arboriculture safety user interface device has fallen, and in response thereto emitting an alert through at least the alerting means of the arboriculture safety user interface device, wherein the arboriculture safety user interface device provides an active noise cancelling device that reduces unwanted sound by the addition of a second sound specifically designed to cancel the first and which is a communication headset for voice communication enabling the users of the arboriculture safety user interface device and the at least one other arboriculture safety user interface device to communicate with one another. establish a communication connection with the at least one other arboriculture safety user interface device; and detect that a fall event has taken place by receiving data from the other arboriculture safety user interface device to that effect, indicating that a user of the another arboriculture safety user interface device has fallen, and in response thereto emitting an alert through at least the alerting means of the arboriculture safety user interface device, wherein the arboriculture safety user interface device provides an active noise cancelling device that reduces unwanted sound by the addition of a second sound specifically designed to cancel the first and which is a communication headset for voice communication enabling the users of the arboriculture safety user interface device and the at least one other arboriculture safety user interface device to communicate with one another.
Method for producing a charge for an explosive projectile, comprising the following steps: producing a plastic-bonded explosive moulding; placing a shrink tube around at least some of a circumferential surface of the explosive moulding, so that at least a first shrink tube end of the shrink tube extends beyond a first moulding end of the explosive moulding; generating an axial tensile stress on the shrink tube; and heating the shrink tube to a prescribed shrink temperature, the diameter (D S) thereof decreasing and at the same time the length thereof increasing, so that the shrink tube comes to lie against the circumferential surface of the explosive moulding without any creases. producing a plastic-bonded explosive moulding; placing a shrink tube around at least some of a circumferential surface of the explosive moulding, so that at least a first shrink tube end of the shrink tube extends beyond a first moulding end of the explosive moulding; generating an axial tensile stress on the shrink tube; and heating the shrink tube to a prescribed shrink temperature, the diameter (D S) thereof decreasing and at the same time the length thereof increasing, so that the shrink tube comes to lie against the circumferential surface of the explosive moulding without any creases.