mhurhangee/ep-ind-claims huggingface dataset:
A decontamination apparatus for decontaminating an enclosed room, the decontamination apparatus comprising: a source comprising a UVC bulb and a reflective shield arranged adjacent to the UVC bulb and configured to reflect UVC light emitted by the UVC bulb toward a region of the enclosed room to be decontaminated; a mounting system that is adjustable to secure the source at a desired location within the enclosed room; a controller operatively-connected to the source to terminate operation of the UVC bulb in response to a determination that an occupant is present within the enclosed room, wherein the reflective shield comprises a plurality of regions, each of the plurality of regions having a different arcuate shape comprising a different radius of curvature to reflect the UVC light emitted by the UVC bulb toward the region of the enclosed room to be decontaminated; and a housing in which the UVC bulb and the reflective shield are mounted, the housing being adjustably coupled to pivot about a first axis of rotation and wherein the reflective shield is pivotally coupled to the housing as to pivot about a second axis of rotation that is perpendicular to the first axis of rotation. a source comprising a UVC bulb and a reflective shield arranged adjacent to the UVC bulb and configured to reflect UVC light emitted by the UVC bulb toward a region of the enclosed room to be decontaminated; a mounting system that is adjustable to secure the source at a desired location within the enclosed room; a controller operatively-connected to the source to terminate operation of the UVC bulb in response to a determination that an occupant is present within the enclosed room, wherein the reflective shield comprises a plurality of regions, each of the plurality of regions having a different arcuate shape comprising a different radius of curvature to reflect the UVC light emitted by the UVC bulb toward the region of the enclosed room to be decontaminated; and a housing in which the UVC bulb and the reflective shield are mounted, the housing being adjustably coupled to pivot about a first axis of rotation and wherein the reflective shield is pivotally coupled to the housing as to pivot about a second axis of rotation that is perpendicular to the first axis of rotation.
A process for preparing an olefin oligomer comprising a step of contacting an olefin monomer with a composite catalyst in the presence of a halogenated organic solvent, wherein the composite catalyst includes: a transition metal compound; a cocatalyst; and an organic ligand including a diphosphonoamine compound in which two or more diphosphonoamines are combined via a polyvalent functional group, wherein the diphosphonoamine compound in which two or more diphosphonoamines are combined via a polyvalent functional group includes a compound of the following Chemical Formula 1: wherein, in the above Formula 1, R 1, R 2, R 3, R 4, R 11, R 12, R 13, and R 14 are each an aryl group which has 6 to 20 carbon atoms and is unsubstituted or mono- or polysubstituted by one or more functional groups selected from the group consisting of a halogen, an alkyl group having 1 to 10 carbon atoms, and an alkoxy group having 1 to 5 carbon atoms, and Y is a divalent funtional group having the following Chemical Formula 2, in the above Formula 2, R 21, R 22, and R 23 each are hydrogen, a halogen, or a straight-chain or branched alkyl group having 1 to 4 carbon atoms, and * means a binding point, wherein the halogenated organic solvent includes one or more organic solvents selected from the group consisting of chlorobenzene and dichlorobenzene. R 1, R 2, R 3, R 4, R 11, R 12, R 13, and R 14 are each an aryl group which has 6 to 20 carbon atoms and is unsubstituted or mono- or polysubstituted by one or more functional groups selected from the group consisting of a halogen, an alkyl group having 1 to 10 carbon atoms, and an alkoxy group having 1 to 5 carbon atoms, and Y is a divalent funtional group having the following Chemical Formula 2,
A tread for a heavy truck tire, said tread being directional in that it has a specified rolling direction, said tread comprising: a longitudinal groove that has a bottom; and a stone ejector located within the groove that extends upwards from the groove bottom, wherein the stone ejector has a front side and a back side, wherein the stone ejector has an upper surface that extends at different distances upwards at different locations on the upper surface such that a first location on the upper surface is located closer to the back side and extends a longer distance upwards than a second location on the upper surface that is located closer to the front side, wherein the front side is oriented towards the direction of the rolling direction and wherein the back side is oriented away from the rolling direction; characterized in that the tread further comprises: a successive stone ejector immediately successive to the stone ejector in a circumferential direction with a space present between the stone ejector and the successive stone ejector, wherein the successive stone ejector is shaped the same as the stone ejector and has a successive stone ejector back side that extends a longer distance upwards than a successive stone ejector front side such that the successive stone ejector is oriented the same as the stone ejector in the circumferential direction. a longitudinal groove that has a bottom; and a stone ejector located within the groove that extends upwards from the groove bottom, wherein the stone ejector has a front side and a back side, wherein the stone ejector has an upper surface that extends at different distances upwards at different locations on the upper surface such that a first location on the upper surface is located closer to the back side and extends a longer distance upwards than a second location on the upper surface that is located closer to the front side, wherein the front side is oriented towards the direction of the rolling direction and wherein the back side is oriented away from the rolling direction;
Process for start-up of a hydrotreatment or hydroconversion reaction carried out in the presence of hydrogen, in at least 2 catalytic beds, characterized in that - at least one bed contains at least one presulfurized and preactivated catalyst, and at least one catalytic bed contains a catalyst whose catalytic metals are in oxidized form, - a so-called starting feedstock, which is a hydrocarbon fraction that contains at least 0.3% by weight of sulfur, lacking olefinic compounds and not containing an added sulfur-containing compound, passes through a first catalytic bed that contains said presulfurized and preactivated catalyst and then passes through at least one catalytic bed that contains a catalyst whose catalytic metals are in oxidized form, - and the first presulfurized and preactivated catalyst bed reaches a temperature of at least 220°C. - at least one bed contains at least one presulfurized and preactivated catalyst, and at least one catalytic bed contains a catalyst whose catalytic metals are in oxidized form, - a so-called starting feedstock, which is a hydrocarbon fraction that contains at least 0.3% by weight of sulfur, lacking olefinic compounds and not containing an added sulfur-containing compound, passes through a first catalytic bed that contains said presulfurized and preactivated catalyst and then passes through at least one catalytic bed that contains a catalyst whose catalytic metals are in oxidized form, - and the first presulfurized and preactivated catalyst bed reaches a temperature of at least 220°C.
An optical encoder comprising: a light source that emits light; a scale comprising a scale grating formed with a predetermined period; a light source grating comprising a grating formed with a period twice the predetermined period, the light source grating being disposed between the light source and the scale; and interference fringe detection means configured to be able to detect a bright part of an interference fringe with the predetermined period, the interference fringe being generated by the light source grating and the scale, wherein the interference fringe detection means is arranged to detect a first interference fringe formed by light coming from the scale and a second interference fringe formed by light coming from the scale, a position of a bright part of the second interference fringe being shifted from a position of a bright part of the first interference fringe by the predetermined period, characterized in that the scale comprises at least two scale gratings (141, 142) formed with the predetermined period, and the at least two scale gratings are arranged in parallel and neighboring scale gratings are shifted from each other by a half of the predetermined period. a light source that emits light; a scale comprising a scale grating formed with a predetermined period; a light source grating comprising a grating formed with a period twice the predetermined period, the light source grating being disposed between the light source and the scale; and interference fringe detection means configured to be able to detect a bright part of an interference fringe with the predetermined period, the interference fringe being generated by the light source grating and the scale, wherein the interference fringe detection means is arranged to detect a first interference fringe formed by light coming from the scale and a second interference fringe formed by light coming from the scale, a position of a bright part of the second interference fringe being shifted from a position of a bright part of the first interference fringe by the predetermined period, characterized in that the scale comprises at least two scale gratings (141, 142) formed with the predetermined period, and the at least two scale gratings are arranged in parallel and neighboring scale gratings are shifted from each other by a half of the predetermined period.
An electrolyte additive composition comprising: a borate-based lithium compound represented by Formula 1; and a lithiated additive, wherein the lithiated additive comprises at least one selected from the group consisting of phosphate-based lithium, sulfate-based lithium, and imidazole-based lithium, and the electrolyte additive composition does not contain a non-lithiated phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen or sulfur. a borate-based lithium compound represented by Formula 1; and a lithiated additive, wherein the lithiated additive comprises at least one selected from the group consisting of phosphate-based lithium, sulfate-based lithium, and imidazole-based lithium, and the electrolyte additive composition does not contain a non-lithiated phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen or sulfur.
A clothes lifting device for a washing machine having an imperforated inner drum, the clothes lifting device comprising: a body being configured to be internally provided with an accommodating chamber; water inlets being arranged in the body and being configured to communicate with the accommodating chamber; a centrifugal drainage assembly being arranged in the accommodating chamber, said centrifugal drainage assembly being configured in an initial state of the centrifugal drainage assembly to be closed, and to open for drainage under an action of centrifugal force; and a filtering assembly being arranged on the water inlets of the body for filtering water entering the accommodating chamber, wherein the body comprises a lifting shell, which is internally provided with an open cavity; and a lifting base body, which is detachably installed at an open end of the open cavity of the lifting shell to form the accommodating chamber with the lifting shell; the centrifugal drainage assembly is installed on the lifting base body; the water inlets are arranged in the lifting shell, and the filtering assemblies are arranged on the water inlets of the lifting shell wherein a plurality of spraying openings are arranged in the lifting shell and characterised in that the water inlet filtering portion includes a base body water inlet filtering portion arranged on the lifting base body, and the base body water inlet filtering portion includes a plurality of base body water filtering holes which are arranged in the lifting base body and communicating with the accommodating chamber. a body being configured to be internally provided with an accommodating chamber; water inlets being arranged in the body and being configured to communicate with the accommodating chamber; a centrifugal drainage assembly being arranged in the accommodating chamber, said centrifugal drainage assembly being configured in an initial state of the centrifugal drainage assembly to be closed, and to open for drainage under an action of centrifugal force; and a filtering assembly being arranged on the water inlets of the body for filtering water entering the accommodating chamber, wherein the body comprises a lifting shell, which is internally provided with an open cavity; and a lifting base body, which is detachably installed at an open end of the open cavity of the lifting shell to form the accommodating chamber with the lifting shell; the centrifugal drainage assembly is installed on the lifting base body; the water inlets are arranged in the lifting shell, and the filtering assemblies are arranged on the water inlets of the lifting shell wherein a plurality of spraying openings are arranged in the lifting shell and characterised in that the water inlet filtering portion includes a base body water inlet filtering portion arranged on the lifting base body, and the base body water inlet filtering portion includes a plurality of base body water filtering holes which are arranged in the lifting base body and communicating with the accommodating chamber.
A method for operating a wind turbine, which has the following steps: a. An indicative parameter (A(t)) for a wind hitting the wind turbine is currently determined from the present values for the generator speed (n Gen (t)) and/or the wind speed (v wind (t)) at each point in time (t), b. A temporal change variable (dA(t)) is formed for the parameter (A(t)) at each point in time (t), c. For the temporal change variables (dA(t)), which occurred in a past time interval ([t-T, t]), the third and/or fourth statistical moment (M 3, M 4) is calculated for a distribution of the temporal change values in the time interval ([t-T, t]), d. If at least one of the statistical moments (M 3, M 4) exceeds a predetermined cut-in threshold value, then a detection signal (C EGLM) is set for an extreme gust, which triggers one or both of the following method steps: i. A setpoint value for the blade pitch angle (θ set) is increased and ii. A setpoint value for the generator speed (n Gen,set) is reduced. a. An indicative parameter (A(t)) for a wind hitting the wind turbine is currently determined from the present values for the generator speed (n Gen (t)) and/or the wind speed (v wind (t)) at each point in time (t), b. A temporal change variable (dA(t)) is formed for the parameter (A(t)) at each point in time (t), c. For the temporal change variables (dA(t)), which occurred in a past time interval ([t-T, t]), the third and/or fourth statistical moment (M 3, M 4) is calculated for a distribution of the temporal change values in the time interval ([t-T, t]), d. If at least one of the statistical moments (M 3, M 4) exceeds a predetermined cut-in threshold value, then a detection signal (C EGLM) is set for an extreme gust, which triggers one or both of the following method steps: i. A setpoint value for the blade pitch angle (θ set) is increased and ii. A setpoint value for the generator speed (n Gen,set) is reduced. i. A setpoint value for the blade pitch angle (θ set) is increased and ii. A setpoint value for the generator speed (n Gen,set) is reduced.
A paste comprising a glass frit and an organic vehicle, the paste further comprising: aluminium powders including a first powder, a second powder and a third powder; the paste being characterized in that the aluminium powders include the first powder in a range of 40 to 50 wt%, the second powder in a range of 20 to 30 wt%, and the third powder in a range of 0.1 to 2 wt% of total weight of the aluminium powders, wherein the first powder has a globular shape, the second powder has a globular shape and the third powder has a flat shape, wherein a diameter of the first powder is in a range of 0.1 to 2 μm, and wherein a diameter of the second powder is in a range of 0.5 to 20 μm. aluminium powders including a first powder, a second powder and a third powder; the paste being characterized in that the aluminium powders include the first powder in a range of 40 to 50 wt%, the second powder in a range of 20 to 30 wt%, and the third powder in a range of 0.1 to 2 wt% of total weight of the aluminium powders, wherein the first powder has a globular shape, the second powder has a globular shape and the third powder has a flat shape, wherein a diameter of the first powder is in a range of 0.1 to 2 μm, and wherein a diameter of the second powder is in a range of 0.5 to 20 μm.
A retaining band to be fitted around the rotor assembly of an electrical machine, the retaining band having a plurality of voids formed therein and a radial spring stiffness that increases when the retaining band is deflected outwardly in the radial direction to close up the voids.
A method for the production of a room-temperature storable cheesecake filling comprising the steps of: a) mixing cheese, a stabilizer, wherein the said stabilizer comprises starch and/or modified starch, water and an anti-oxidizing agent, and submitting the obtained mixture to a heating step at a temperature comprised between 75°C and 140°C; b) mixing eggs with sugar; c) combining the cheese-containing mixture resulting from step a) with the egg-containing mixture resulting from step b) such that the temperature of the resulting mixture is maintained between 50°C and 90°C; and d) optionally, cooling the mixture resulting from step c). a) mixing cheese, a stabilizer, wherein the said stabilizer comprises starch and/or modified starch, water and an anti-oxidizing agent, and submitting the obtained mixture to a heating step at a temperature comprised between 75°C and 140°C; b) mixing eggs with sugar; c) combining the cheese-containing mixture resulting from step a) with the egg-containing mixture resulting from step b) such that the temperature of the resulting mixture is maintained between 50°C and 90°C; and d) optionally, cooling the mixture resulting from step c).
An encoder comprising: a scale; and a detection head which is relatively displaceable with respect to the scale, wherein the detection head includes a plurality of detection array portions that are arranged in a direction along which the detection head is relatively displaceable, a processor configured to calculate position signals indicating a position of the detection head from output signals output from the detection array portions, and to combine the position signals with one another and determine the position of the detection head with respect to the scale, and wherein the processor is configured to perform weighting according to the strength of the output signal on the position signal of each of the detection array portions, and to average the weighted position signals. a scale; and a detection head which is relatively displaceable with respect to the scale, wherein the detection head includes a plurality of detection array portions that are arranged in a direction along which the detection head is relatively displaceable, a processor configured to calculate position signals indicating a position of the detection head from output signals output from the detection array portions, and to combine the position signals with one another and determine the position of the detection head with respect to the scale, and a plurality of detection array portions that are arranged in a direction along which the detection head is relatively displaceable, a processor configured to calculate position signals indicating a position of the detection head from output signals output from the detection array portions, and to combine the position signals with one another and determine the position of the detection head with respect to the scale, and wherein the processor is configured to perform weighting according to the strength of the output signal on the position signal of each of the detection array portions, and to average the weighted position signals.
Additional electric radiator for a motor vehicle, including a heating zone and a compartment housing electronic components for controlling the heating, said electronic components being arranged on a printed circuit board, characterized in that the printed circuit board has a longitudinal partially milled zone and is folded at an angle along said partially milled zone, the printed circuit board has first and second longitudinal zones that are separated by the partially milled zone, the first longitudinal zone of the printed circuit board bearing high-power electronic components.
Transportable Wild Mouse rollercoaster having an endless travel route without inversions, which is arranged over a generally rectangular base surface and comprises a lift hill and a plurality of tight mouse bends (72, 74, 76, 80, 82, 84, 86) without banking, and having a plurality of individual cars, which travel the travel route at a distance apart from one another, wherein the travel route, between the lift hill and the mouse bends (72, 74, 76, 80, 82, 84, 86), comprises a route section which extends along an outer boundary of the rectangular base surface and, over part (32, 36, 42, 56, 58, 60) of its length, is at a greater height than the mouse bends (72, 74, 76, 80, 82, 84, 86), characterized in that the route section, which is located between the lift hill and the mouse bends (72, 74, 76, 80, 82, 84, 86), extends more or less entirely around the rectangular base surface and comprises at least two valleys (50, 66) on the opposite sides (28, 30) of the rectangular base surface, before the route section reaches the first of the tight mouse bends (72, 74, 76, 80, 82, 84, 86).
Process for preparing a porous silica particle comprising the steps consisting in: - preparing, from a reverse microemulsion, a silica particle comprising a water-soluble pore-forming agent; then - removing said pore-forming agent by dissolution. - preparing, from a reverse microemulsion, a silica particle comprising a water-soluble pore-forming agent; then - removing said pore-forming agent by dissolution.