mhurhangee/ep-ind-claims huggingface dataset:
A method for circadian lighting in a home automation system, comprising: receiving, in a user interface of an electronic device, user selections of color temperature and intensity for a structure having a plurality of rooms that define a circadian lighting curve; receiving, in the user interface, a user selection of a room of the plurality of rooms in which to activate circadian lighting; determining a current color temperature and intensity of lighting in an outdoor environment; calculating, by an algorithm executing on the electronic device or another electronic device, an optimal color temperature and dimming value by combining a color temperature and intensity from the circadian lighting curve and the current color temperature and intensity of lighting in the outdoor environment, the combining to decrease color temperature and/or intensity from the circadian lighting curve or increase the color temperature and/or intensity from the circadian lighting curve to mimic the current color temperature and intensity in the outdoor environment; and converting the optimal color temperature and dimming value into individual sets of lighting commands that control individual lighting devices (128, 136, 140, 148, 156) of the room, wherein the lighting devices of the room include lighting devices with different capabilities, including one or more lighting devices that have controllable color temperature and intensity and one or more lighting devices that have only controllable intensity. receiving, in a user interface of an electronic device, user selections of color temperature and intensity for a structure having a plurality of rooms that define a circadian lighting curve; receiving, in the user interface, a user selection of a room of the plurality of rooms in which to activate circadian lighting; determining a current color temperature and intensity of lighting in an outdoor environment; calculating, by an algorithm executing on the electronic device or another electronic device, an optimal color temperature and dimming value by combining a color temperature and intensity from the circadian lighting curve and the current color temperature and intensity of lighting in the outdoor environment, the combining to decrease color temperature and/or intensity from the circadian lighting curve or increase the color temperature and/or intensity from the circadian lighting curve to mimic the current color temperature and intensity in the outdoor environment; and converting the optimal color temperature and dimming value into individual sets of lighting commands that control individual lighting devices (128, 136, 140, 148, 156) of the room, wherein the lighting devices of the room include lighting devices with different capabilities, including one or more lighting devices that have controllable color temperature and intensity and one or more lighting devices that have only controllable intensity.
A nozzle mounting and sealing assembly for a gas turbine system comprising: a nozzle having an outer band with an outer surface and a trailing edge and an anti-rotation pin slot formed within an aft flange disposed proximate the outer band trailing edge; a retaining ring extending circumferentially about the outer surface of the outer band, wherein the retaining ring includes an anti-rotation pin and an anti-rotation pin hole, wherein the anti-rotation pin is configured to fittingly reside in an axial orientation aligned with the longitudinal axis of the gas turbine system within the anti-rotation pin slot and the anti-rotation pin hole; a seal plate seated on the outer surface of the outer band and configured to retain the anti-rotation pin within the anti-rotation pin slot and the anti-rotation pin hole, wherein the seal plate comprises at least one notch disposed proximate a first edge of the seal plate and proximate an edge of an adjacent seal plate; a washer disposed within a bored portion of the seal plate, wherein the bored portion is aligned with an aperture within the retaining ring, wherein a mechanical fastener extends into the retaining ring through the bored portion to operably couple the seal plate to the retaining ring; and at least one cooling groove disposed within the retaining ring at an interface between the retaining ring and the seal plate, wherein an axially rearward end of the anti-rotation pin includes at least one notched portion corresponding to the at least one cooling groove. a nozzle having an outer band with an outer surface and a trailing edge and an anti-rotation pin slot formed within an aft flange disposed proximate the outer band trailing edge; a retaining ring extending circumferentially about the outer surface of the outer band, wherein the retaining ring includes an anti-rotation pin and an anti-rotation pin hole, wherein the anti-rotation pin is configured to fittingly reside in an axial orientation aligned with the longitudinal axis of the gas turbine system within the anti-rotation pin slot and the anti-rotation pin hole; a seal plate seated on the outer surface of the outer band and configured to retain the anti-rotation pin within the anti-rotation pin slot and the anti-rotation pin hole, wherein the seal plate comprises at least one notch disposed proximate a first edge of the seal plate and proximate an edge of an adjacent seal plate; a washer disposed within a bored portion of the seal plate, wherein the bored portion is aligned with an aperture within the retaining ring, wherein a mechanical fastener extends into the retaining ring through the bored portion to operably couple the seal plate to the retaining ring; and at least one cooling groove disposed within the retaining ring at an interface between the retaining ring and the seal plate, wherein an axially rearward end of the anti-rotation pin includes at least one notched portion corresponding to the at least one cooling groove.
A sealed cased magnetic switch, which includes a sealed container with one side opened, a fixed electrode air-tightly attached to the side opposite to the opened side of the sealed container, a movable contactor movable to a position at which it is brought into contact with the fixed electrode and to a position at which it is separated from the fixed electrode, a driving shaft supporting the movable contactor and being movable along with the movable contactor, a movable core coupled with the driving shaft so as to be movable together, a fixed core installed to face the movable core, a bobbin accommodating the fixed core and the movable core in the interior of a hollow thereof, a coil wound around the bobbin, a yoke installed near the coil to form a magnetic path, and an iron plate forming the magnetic path along with the yoke and installed at an upper portion of the bobbin, the sealed cased magnetic switch comprising: a first contact pressure spring having one end supported by the movable contactor and applying an elastic force to the movable contactor to provide a contact pressure in a direction in which the movable contactor is brought into contact with the fixed electrode; a spring seat member supporting the other end of the first contact pressure spring and fixedly installed on the driving shaft; and a second contact pressure spring having a diameter larger than that of the first contact pressure spring and applying an elastic force at an outer position in a radial direction compared with the first contact pressure spring to the movable contactor in a direction in which the movable contactor is brought into contact with the fixed electrode, characterised in that one end of the second contact pressure spring is supported by the movable contactor and the other end of the second contact pressure spring is supported by the iron plate. a first contact pressure spring having one end supported by the movable contactor and applying an elastic force to the movable contactor to provide a contact pressure in a direction in which the movable contactor is brought into contact with the fixed electrode; a spring seat member supporting the other end of the first contact pressure spring and fixedly installed on the driving shaft; and a second contact pressure spring having a diameter larger than that of the first contact pressure spring and applying an elastic force at an outer position in a radial direction compared with the first contact pressure spring to the movable contactor in a direction in which the movable contactor is brought into contact with the fixed electrode, characterised in that one end of the second contact pressure spring is supported by the movable contactor and the other end of the second contact pressure spring is supported by the iron plate.
Meter electronics for a vibratory flow meter, whereby the meter electronics is adapted to force a drive signal on the vibratory flowmeter, said drive signal comprising a drive frequency and at least one tone above and one tone below said drive frequency, the meter electronics comprising: an interface for receiving three or more vibrational responses from the vibratory flow meter, with the three or more vibrational responses including a substantially fundamental frequency response and two or more non-fundamental frequency responses, and a processing system in communication with the interface; wherein the processing system is configured to: receive the three or more vibrational responses from the interface, with the three or more vibrational responses comprising at least one tone above the fundamental frequency response and at least one tone below the fundamental frequency response; generate a pole-residue frequency response function from the three or more vibrational responses; and determine at least a stiffness parameter from the pole-residue frequency response function. an interface for receiving three or more vibrational responses from the vibratory flow meter, with the three or more vibrational responses including a substantially fundamental frequency response and two or more non-fundamental frequency responses, and a processing system in communication with the interface; wherein the processing system is configured to: receive the three or more vibrational responses from the interface, with the three or more vibrational responses comprising at least one tone above the fundamental frequency response and at least one tone below the fundamental frequency response; generate a pole-residue frequency response function from the three or more vibrational responses; and determine at least a stiffness parameter from the pole-residue frequency response function. receive the three or more vibrational responses from the interface, with the three or more vibrational responses comprising at least one tone above the fundamental frequency response and at least one tone below the fundamental frequency response; generate a pole-residue frequency response function from the three or more vibrational responses; and determine at least a stiffness parameter from the pole-residue frequency response function.
A blower vacuum appliance comprising: a body comprising a volute assembly, the volute assembly comprising a central hub and a scroll portion located outwardly of the hub, wherein the hub comprises an air inlet covered by an air grill; a motor comprising a drive shaft; and an impeller mounted on the drive shaft and configured to rotate about an axis coincident with the centre of the hub, the impeller being located at the centre of the hub and in communication with the air inlet, wherein the impeller comprises a base, a shroud and a plurality of blades located therebetween, wherein the shroud comprises an impeller inlet defining a passageway extending to the plurality of blades, wherein the impeller arrangement further comprises an inner annular rib and an outer annular rib defining an annular channel therebetween, the inner annular rib being part of an inner annular wall of the impeller delimiting the impeller inlet and the volute assembly comprises an annular volute rib extending into the annular channel to restrict airflow between the volute assembly and the shroud and an internal inlet wall of the air inlet is located at the same radial spacing as the inner annular wall. a body comprising a volute assembly, the volute assembly comprising a central hub and a scroll portion located outwardly of the hub, wherein the hub comprises an air inlet covered by an air grill; a motor comprising a drive shaft; and an impeller mounted on the drive shaft and configured to rotate about an axis coincident with the centre of the hub, the impeller being located at the centre of the hub and in communication with the air inlet, wherein the impeller comprises a base, a shroud and a plurality of blades located therebetween, wherein the shroud comprises an impeller inlet defining a passageway extending to the plurality of blades, wherein the impeller arrangement further comprises an inner annular rib and an outer annular rib defining an annular channel therebetween, the inner annular rib being part of an inner annular wall of the impeller delimiting the impeller inlet and the volute assembly comprises an annular volute rib extending into the annular channel to restrict airflow between the volute assembly and the shroud and an internal inlet wall of the air inlet is located at the same radial spacing as the inner annular wall.
An eyewear system comprising: a frame including a lens-retaining portion comprising first and second end portions (104-1, 104-2); and a pair of temples (110-1, 110-2), each connected to a respective one of the first and second end portions (104-1, 104-2), each of the temples (110-1, 110-2) comprising a hinge portion and an insert, wherein the insert is formed of a ferromagnetic material, and wherein at least one of the temples in the pair (110-1, 110-2) comprises a track extending longitudinally along a length of the temple, wherein a base or bottom of the track is defined by the insert and wherein walls of the track are defined by a second material disposed around the insert, the eyewear system being characterized in that the insert is also a core wire of the frame, which is attached to and extends from the hinge portion towards a distal end of the temple. a frame including a lens-retaining portion comprising first and second end portions (104-1, 104-2); and a pair of temples (110-1, 110-2), each connected to a respective one of the first and second end portions (104-1, 104-2), each of the temples (110-1, 110-2) comprising a hinge portion and an insert, wherein the insert is formed of a ferromagnetic material, and wherein at least one of the temples in the pair (110-1, 110-2) comprises a track extending longitudinally along a length of the temple, wherein a base or bottom of the track is defined by the insert and wherein walls of the track are defined by a second material disposed around the insert, the eyewear system being characterized in that the insert is also a core wire of the frame, which is attached to and extends from the hinge portion towards a distal end of the temple.
MACHINE FOR PACKING SAND, GRAVEL, CLAY, EARTH AND HUMID GRANULATED MATERIAL SUCH AS MORTAR AND ORGANIC FERTILIZER IN BAGS comprising a silo and a series of other mechanisms mounted on a support structure, a vibrating set disposed on the outside of one of the walls of the silo; a oscillating tray mounted directly below the silo, and said oscillating tray operates on an oscillating set characterized by the oscillatory set being comprised of a motor fixed to the machine structure, which rotates a vertical axis that moves back and forth the oscillating tray, and the oscillating tray is arranged at an angle to the horizontal such that the lower end is positioned over a funnel and the upper end is positioned under the outlet of the silo, and said vibrating set comprises a motor containing an eccentric weight, the motor being fixed to a support plate which through an extension member is fixed to a second inner plate fixed to the internal surface of the wall of the silo, the inner plate being on one side, fixed only on its upper part and containing a spacing rubber located between the internal plate and the internal wall of the silo.
Looped UVEx type probe (s) for detecting tick-borne pathogen genetic material, that is amplified during PCR reaction by "Hot Start" type Taq DNA polymerase, the (each) probe characterized by being an oligonucleotide of any length which folds at temperature range 4-24°C and forms secondary structures (including looping) assuming the limit values ΔG (dG) from the range -1.14 ≥ ΔG ≥ -8.36 kcal/mole, whereby the distance, in straight line, between the fluorescent reporter (UV-F) and the fluorescence quencher, in a coiled probe, does not exceed 25 nucleotides (nt), while the probe (s) comprise(s) following nucleotides: 5' CAGGGTTAAGCCCTGGCGTTTCACCTT 3' named S_Ap and/or 5' AAAGTTAGGGGCTCGAAGACGATCAGATACC 3' named S_Bb and/or, 5' ACGCCCAGTAAATGCGAACAACGCTAGC 3' named S_Bl and/or,, 5' CAGTCTTGACCCAGAAGTTCGCCTTCGCC 3' named S_Br and/or, 5' TAACGCGTTAAGTTCTCCGCCTGGGG 3' named S_Cb and/or, 5' CTAACTATGTGCCAGCAGCCGCGGTAAT 3' named S_Mf and/or, 5' TTTGGGAAGAATGACTTTAGCAGGTAACGGC 3' named S_Mp and/or 5' AAAGCAATTCCGAGGTTAAGCCCCGAG 3' named S_Rc. 5' CAGGGTTAAGCCCTGGCGTTTCACCTT 3' named S_Ap and/or 5' AAAGTTAGGGGCTCGAAGACGATCAGATACC 3' named S_Bb and/or, 5' ACGCCCAGTAAATGCGAACAACGCTAGC 3' named S_Bl and/or,, 5' CAGTCTTGACCCAGAAGTTCGCCTTCGCC 3' named S_Br and/or, 5' TAACGCGTTAAGTTCTCCGCCTGGGG 3' named S_Cb and/or, 5' CTAACTATGTGCCAGCAGCCGCGGTAAT 3' named S_Mf and/or, 5' TTTGGGAAGAATGACTTTAGCAGGTAACGGC 3' named S_Mp and/or 5' AAAGCAATTCCGAGGTTAAGCCCCGAG 3' named S_Rc.
An organotemplate-free synthetic process for the production of a zeolitic material having a BEA framework structure comprising YO 2 and X 2 O 3, wherein said process comprises the steps of preparing a mixture comprising seed crystals, at least one source for YO 2, at least one source for X 2 O 3, and a solvent; crystallizing the mixture for a period ranging from 2 to 100 h, wherein the mixture is heated under solvothermal conditions during at least a portion of the crystallization process; and subjecting the zeolitic material having a BEA framework structure to an ion-exchange procedure, wherein the zeolitic material is first ion-exchanged with NH 4 + before being subject to ion exchange with Cu and/or Fe; wherein Y is Si, and X is Al, wherein the zeolitic material comprises at least one alkali metal M, wherein the YO 2: X 2 O 3: M molar ratios in the mixture according to step range from (1 - 100): 1: (2 - 90), and wherein the seed crystals comprise zeolitic material having a BEA framework structure, preferably zeolite Beta. preparing a mixture comprising seed crystals, at least one source for YO 2, at least one source for X 2 O 3, and a solvent; crystallizing the mixture for a period ranging from 2 to 100 h, wherein the mixture is heated under solvothermal conditions during at least a portion of the crystallization process; and subjecting the zeolitic material having a BEA framework structure to an ion-exchange procedure, wherein the zeolitic material is first ion-exchanged with NH 4 + before being subject to ion exchange with Cu and/or Fe; wherein Y is Si, and X is Al, wherein the zeolitic material comprises at least one alkali metal M, wherein the YO 2: X 2 O 3: M molar ratios in the mixture according to step range from (1 - 100): 1: (2 - 90), and wherein the seed crystals comprise zeolitic material having a BEA framework structure, preferably zeolite Beta.
An electronic, optical or optoelectronic device comprising a polymeric semiconductor component, characterized in that the polymeric semiconductor component comprises a polymer having formula (VIIa), formula (VIIb), or formula (VIIc): wherein: π and π' are identical or different optionally substituted 11-24 membered polycyclic aryl or heteroaryl groups; R 1 is selected from F, Cl, -C R 5, -CF 2 R 5, and CN; R 3 and R 4 independently are selected from H, F, Cl, -C R 5, CN, R 5, OR 5, and SR 5, wherein R 5, at each occurrence, independently is selected from a C 1-20 alkyl group and a C 1-20 haloalkyl group; R 13 and R 14 are the same and selected from R 15, OR 15, and SR 15, wherein R 15 is a C 1-20 alkyl group; c is 1 or 2; x and y are real numbers representing mole fractions, wherein 0.05 ≤ x ≤ 0.95, 0.05 ≤ y ≤ 0.95, and the sum of x and y is 1; and wherein the polymer has a molecular weight in the range of 3,000 to 300,000; and wherein optionally the repeating unit comprising x mole fraction of the polymer and the repeating unit comprising y mole fraction of the polymer are repeated in a random manner. π and π' are identical or different optionally substituted 11-24 membered polycyclic aryl or heteroaryl groups; R 1 is selected from F, Cl, -C R 5, -CF 2 R 5, and CN; R 3 and R 4 independently are selected from H, F, Cl, -C R 5, CN, R 5, OR 5, and SR 5, wherein R 5, at each occurrence, independently is selected from a C 1-20 alkyl group and a C 1-20 haloalkyl group; R 13 and R 14 are the same and selected from R 15, OR 15, and SR 15, wherein R 15 is a C 1-20 alkyl group; c is 1 or 2; x and y are real numbers representing mole fractions, wherein 0.05 ≤ x ≤ 0.95, 0.05 ≤ y ≤ 0.95, and the sum of x and y is 1; and wherein the polymer has a molecular weight in the range of 3,000 to 300,000; and wherein optionally the repeating unit comprising x mole fraction of the polymer and the repeating unit comprising y mole fraction of the polymer are repeated in a random manner.
A composite inlet cap for a gas turbine engine, comprising: a first lug slot located proximate a perimeter of the composite inlet cap; and a second lug slot located proximate the perimeter of the composite inlet cap and located peripherally adjacent to the first lug slot; wherein the first lug slot includes a first ply (324D-1 to 324D-7); characterised in that the second lug slot includes a second ply (324E-1 to 324E-7) that is different from the first ply (324D-1 to 324D-7); at least a third ply (324D-9, 324D-10, 324D-11) is common to the first lug slot and the second lug slot. a first lug slot located proximate a perimeter of the composite inlet cap; and a second lug slot located proximate the perimeter of the composite inlet cap and located peripherally adjacent to the first lug slot; wherein the first lug slot includes a first ply (324D-1 to 324D-7); characterised in that the second lug slot includes a second ply (324E-1 to 324E-7) that is different from the first ply (324D-1 to 324D-7); at least a third ply (324D-9, 324D-10, 324D-11) is common to the first lug slot and the second lug slot.