mhurhangee/ep-ind-claims huggingface dataset:
A hub for a wind turbine, the hub comprising a continuous shell forming an internal space within a hollow body, the hub further comprising a main shaft flange adapted to connect the hub to a main shaft and one or more blade flanges, each blade flange being adapted to connect the hub to a wind turbine blade, the hub comprising one or more reinforcement elements (4, 9) connected to the shell and extending from an inner surface of the shell and inwardly into the internal space within the hollow body, wherein at least one reinforcement element forms an inner wall within the hollow body at a distance to the continuous shell, thereby forming a cavity between the inner wall and the continuous shell, wherein the hub comprises at least two hub parts (6, 7), each hub part (6, 7) is connected to at least one other hub part (6, 7) via one or more connecting portions, so that at least one blade flange and/or the main shaft flange comprises a section forming part of or being attached to one of the hub parts (6, 7) and a section forming part of or being attached to another hub part (6, 7), wherein the inner wall and the hub parts (6, 7) are casted from a castable material in one piece characterised in that the connecting portion(s) intersect(s) at least one blade flange and/or the main blade shaft flange.
A polyester polyol obtainable or obtained by esterification of components (i) to (v) (i) 10 to 70 mol% of at least one compound from the group consisting of terephthalic acid, dimethyl terephthalate, polyethylene terephthalate, phthalic anhydride, phthalic acid and isophthalic acid, (ii) 0.1 to 30 mol% of one or more fatty acids and/or fatty acid derivatives, (iii) 10 to 70 mol% of one or more aliphatic or cycloaliphatic diols having 2 to 18 carbon atoms or alkoxylates thereof, (iv) 5 to 70 mol% of a polyether polyol prepared by alkoxylating an aromatic starter molecule having a functionality of not less than 2, (v) 0 to 70 mol% of a tri- or polyol other than component (iv), all based on the total amount of components (i) to (v), wherein the amounts used of components (i) to (v) add up to 100 mol%. (i) 10 to 70 mol% of at least one compound from the group consisting of terephthalic acid, dimethyl terephthalate, polyethylene terephthalate, phthalic anhydride, phthalic acid and isophthalic acid, (ii) 0.1 to 30 mol% of one or more fatty acids and/or fatty acid derivatives, (iii) 10 to 70 mol% of one or more aliphatic or cycloaliphatic diols having 2 to 18 carbon atoms or alkoxylates thereof, (iv) 5 to 70 mol% of a polyether polyol prepared by alkoxylating an aromatic starter molecule having a functionality of not less than 2, (v) 0 to 70 mol% of a tri- or polyol other than component (iv),
A curable voided composition comprising: a. 15 to 50 parts of a hydroxy-functional or ether functional (meth)acrylate copolymer or syrup thereof; b. 25 to 50 parts of an epoxy resin component; c. 5-15 parts of a liquid polyether polyol; d. optionally up to 25 parts of a hydroxy-functional film-forming polymer; e. 0.1 to 2.5 parts water, relative to 100 parts a to d; f. 0.01-5 parts cationic photoinitiator, relative to 100 parts a to d; g. optionally a polyvinyl acetal polymer h. a sufficient quantity of polymeric microspheres to yield a density reduction of >10% in the cured composition, said microspheres having a neutral surface; i. optionally multifunctional (meth)acrylate and radical photoinitiator; wherein the sum of a) to d) is 100 parts by weight and wherein the density reduction is determined according to the method mentioned in the specification. a. 15 to 50 parts of a hydroxy-functional or ether functional (meth)acrylate copolymer or syrup thereof; b. 25 to 50 parts of an epoxy resin component; c. 5-15 parts of a liquid polyether polyol; d. optionally up to 25 parts of a hydroxy-functional film-forming polymer; e. 0.1 to 2.5 parts water, relative to 100 parts a to d; f. 0.01-5 parts cationic photoinitiator, relative to 100 parts a to d; g. optionally a polyvinyl acetal polymer h. a sufficient quantity of polymeric microspheres to yield a density reduction of >10% in the cured composition, said microspheres having a neutral surface; i. optionally multifunctional (meth)acrylate and radical photoinitiator;
An orthogonal fluxgate sensor comprising at least one ferromagnetic core (11, 11.1, 11.2) having a longitudinal dimension of the core and transverse dimensions of the core measured perpendicular to the longitudinal dimension of the core and sensing coil (23, 23.1, 23.2), wherein the ferromagnetic core (11, 11.1, 11.2) is at least partially placed inside the sensing coil (23, 23.1, 23.2) so that the change in magnetic flux in the ferromagnetic core causes an induced voltage in the sensing coil (23, 23.1, 23.2), wherein the orthogonal fluxgate sensor comprises further a filler material, the ferromagnetic core (11, 11.1, 11.2) being at least partially embedded in the filler material so that at least 50 % of the surface of the ferromagnetic core is in direct contact with the filler material whose coefficient of thermal conductivity at 25 °C after solidification is greater than 0.1 Wm -1 K -1 and whose Shore A hardness at 25°C after solidification is from 5 to 70, wherein the filler material has a length section equal to at least 50 % of the longitudinal core dimension, and external dimensions measured perpendicularly to the longitudinal dimension of the core, characterised in that the smallest external dimension of said external dimensions of the filler material is at least by 500 μm greater than the largest transverse dimension of the ferromagnetic core (11, 11.1, 11.2).
Decorative element, comprising - an elongate carrier body, and - a plurality of gemstones, in particular faceted gemstones, on an adhesive layer on the carrier body, wherein for each of the gemstones there is a minimum position and a maximum position relative to the surface of the carrier body, characterised in that more than 60% of the gemstones are held in a position in which the height of the gemstone relative to the surface of the carrier body is smaller than or equal to the arithmetic mean of the height (Hmin) in the minimum position and the height (Hmax) in the maximum position. - an elongate carrier body, and - a plurality of gemstones, in particular faceted gemstones,
An apparatus comprising: a housing; a first battery cell array positioned inside the housing, wherein the first battery cell array has one or more first battery cells; a second battery cell array positioned inside the housing, wherein the second battery cell array has a second plurality of battery cells; a compressor, a condenser, an expansion valve, and an evaporator coupled together to form a refrigeration system, wherein the evaporator is positioned inside the housing and configured to exchange heat with the one or more first battery cells, and wherein the condenser is positioned outside the housing and configured to exchange heat with air outside the housing; and a fan positioned in the housing, wherein the fan is in fluid communication with the first battery cell array; characterized by, the apparatus further comprising a support member positioned between the first and second battery cell arrays within the housing; wherein the fan is supported by the support member so that the fan is positioned centrally relative to the first and second battery cell arrays inside the housing, and above the battery cell arrays and the evaporator; and wherein the evaporator is positioned centrally relative to the battery cell arrays. a housing; a first battery cell array positioned inside the housing, wherein the first battery cell array has one or more first battery cells; a second battery cell array positioned inside the housing, wherein the second battery cell array has a second plurality of battery cells; a compressor, a condenser, an expansion valve, and an evaporator coupled together to form a refrigeration system, wherein the evaporator is positioned inside the housing and configured to exchange heat with the one or more first battery cells, and wherein the condenser is positioned outside the housing and configured to exchange heat with air outside the housing; and a fan positioned in the housing, wherein the fan is in fluid communication with the first battery cell array; characterized by, the apparatus further comprising a support member positioned between the first and second battery cell arrays within the housing; wherein the fan is supported by the support member so that the fan is positioned centrally relative to the first and second battery cell arrays inside the housing, and above the battery cell arrays and the evaporator; and wherein the evaporator is positioned centrally relative to the battery cell arrays.
A radar device comprising: a transmission radar for dividing each frequency band of a plurality N of available frequency bands having unavailable frequency bands interspersed between the available frequency bands into two or more frequency bands in such a manner that the differences between the center frequencies of the two or more frequency bands of each available frequency band after division are equal among the N available frequency bands, and transmitting, in time division manner, transmission signals of which the transmission frequencies are the center frequencies in respective frequency bands after division; a reception radar for receiving each of reflection signals that are transmission signals transmitted in time division manner from the transmission radar and then reflected from a target, and converting each of the reflection signals into a reception video signal; a rearrangement processing unit for rearranging each of the reception video signals converted by the reception radar in such a manner that sets of the reception video signals corresponding to the multiple available frequency bands before being divided by the transmission radar are arranged in a row; a band synthesis processing unit for performing a band synthesis on each of the reception video signals rearranged by the rearrangement processing unit; and a target detecting unit for detecting a range to the target from the reception video signals subjected to the band synthesis by the band synthesis processing unit. a transmission radar for dividing each frequency band of a plurality N of available frequency bands having unavailable frequency bands interspersed between the available frequency bands into two or more frequency bands in such a manner that the differences between the center frequencies of the two or more frequency bands of each available frequency band after division are equal among the N available frequency bands, and transmitting, in time division manner, transmission signals of which the transmission frequencies are the center frequencies in respective frequency bands after division; a reception radar for receiving each of reflection signals that are transmission signals transmitted in time division manner from the transmission radar and then reflected from a target, and converting each of the reflection signals into a reception video signal; a rearrangement processing unit for rearranging each of the reception video signals converted by the reception radar in such a manner that sets of the reception video signals corresponding to the multiple available frequency bands before being divided by the transmission radar are arranged in a row; a band synthesis processing unit for performing a band synthesis on each of the reception video signals rearranged by the rearrangement processing unit; and a target detecting unit for detecting a range to the target from the reception video signals subjected to the band synthesis by the band synthesis processing unit.
A polymeric blend formulation consisting essentially of: (a) 40 to 65 percent by weight of an ethylene-based copolymer composition; (b) 15 to 40 percent by weight of a chlorinated olefin polymer composition; (c) 0.1 to 25 percent by weight of a filler; (d) 10 to 30 weight percent by weight of an adhesion promoting agent, wherein said adhesion promoting agent is an acid or acid derivative functionalized polyolefin; and (e) optionally, 1 to 4 percent by weight of a mineral oil. (a) 40 to 65 percent by weight of an ethylene-based copolymer composition; (b) 15 to 40 percent by weight of a chlorinated olefin polymer composition; (c) 0.1 to 25 percent by weight of a filler; (d) 10 to 30 weight percent by weight of an adhesion promoting agent, wherein said adhesion promoting agent is an acid or acid derivative functionalized polyolefin; and (e) optionally, 1 to 4 percent by weight of a mineral oil.
A class-D power amplifier, comprising: an audio output terminal; a mode specifying unit which specifies one of a first mode and a second mode; a first class-D amplifying unit (X1, S1, R1, C1) which converts an inputted audio signal into a pulse-width modulated signal and power-amplifies this signal, and supplies the power-amplified audio signal to a positive side of the audio output terminal; an inverting unit (E1, X2, S2, R2, C2) which inverts a polarity of the inputted audio signal; a second class-D amplifying unit which converts the audio signal inverted in the inverting unit into a pulse-width modulated signal and power-amplifies this signal, and supplies the power-amplified audio signal to a negative side of the audio output terminal; a mode control unit which activates the first and second class-D amplifying units when the first mode is specified, and performs protection so that outputs of the first and second class-D amplifying units each become equal to or less than a first current value, and which inactivates one of the first class-D amplifying unit and the second class-D amplifying unit and activates the other when the second mode is specified, grounds a side corresponding to the inactivated class-D amplifying unit out of the positive side and the negative side of the audio output terminal, and performs protection so that an output of the activated class-D amplifying unit becomes equal to or less than a second current value larger than the first current value. an audio output terminal; a mode specifying unit which specifies one of a first mode and a second mode; a first class-D amplifying unit (X1, S1, R1, C1) which converts an inputted audio signal into a pulse-width modulated signal and power-amplifies this signal, and supplies the power-amplified audio signal to a positive side of the audio output terminal; an inverting unit (E1, X2, S2, R2, C2) which inverts a polarity of the inputted audio signal; a second class-D amplifying unit which converts the audio signal inverted in the inverting unit into a pulse-width modulated signal and power-amplifies this signal, and supplies the power-amplified audio signal to a negative side of the audio output terminal; a mode control unit which activates the first and second class-D amplifying units when the first mode is specified, and performs protection so that outputs of the first and second class-D amplifying units each become equal to or less than a first current value, and which inactivates one of the first class-D amplifying unit and the second class-D amplifying unit and activates the other when the second mode is specified, grounds a side corresponding to the inactivated class-D amplifying unit out of the positive side and the negative side of the audio output terminal, and performs protection so that an output of the activated class-D amplifying unit becomes equal to or less than a second current value larger than the first current value.
A sensing apparatus for determining an input point of a pen, the sensing apparatus comprising: a sensing loop unit (111, 292, 611) including a plurality of loops (210, 220, 230, 250, 260, 270, 410, 420, 430, 440, 450, 460, 520, 530, 540, 550, 710, 720, 730) configured to output a first signal in response to electromagnetic fields corresponding to a signal received from the pen, wherein each of the plurality of loops includes exactly two sub-loops (211, 212, 221, 222, 231, 232, 311, 312, 321, 322, 331, 332, 711, 712, 721, 722, 731, 732), the two sub-loops being separated by a predetermined distance; an area determination loop unit (112, 612) including at least one loop (241, 242, 281, 282, 293, 294, 301, 302, 401, 402, 403, 404, 501, 502, 741) configured to output a second signal in response to the signal received from the pen; and a controller (120, 200, 600, 700) configured to determine a plurality of candidates (201, 202, 203, 204, 701, 702) of the input point based on the first signal and determine the input point from the plurality of candidates of the input point based on the second signal, wherein the two sub-loops are connected to each other in series, and wherein one sub-loop of the two sub-loops is disposed inside of an area in which one loop of the area determination loop unit is disposed and the other sub-loop of the two sub-loops is disposed outside of the area in which the one loop is disposed, and wherein each of the plurality of loops of the sensing loop unit is for determining the plurality of candidates of the input point. a sensing loop unit (111, 292, 611) including a plurality of loops (210, 220, 230, 250, 260, 270, 410, 420, 430, 440, 450, 460, 520, 530, 540, 550, 710, 720, 730) configured to output a first signal in response to electromagnetic fields corresponding to a signal received from the pen, wherein each of the plurality of loops includes exactly two sub-loops (211, 212, 221, 222, 231, 232, 311, 312, 321, 322, 331, 332, 711, 712, 721, 722, 731, 732), the two sub-loops being separated by a predetermined distance; an area determination loop unit (112, 612) including at least one loop (241, 242, 281, 282, 293, 294, 301, 302, 401, 402, 403, 404, 501, 502, 741) configured to output a second signal in response to the signal received from the pen; and a controller (120, 200, 600, 700) configured to determine a plurality of candidates (201, 202, 203, 204, 701, 702) of the input point based on the first signal and determine the input point from the plurality of candidates of the input point based on the second signal, wherein the two sub-loops are connected to each other in series, and wherein one sub-loop of the two sub-loops is disposed inside of an area in which one loop of the area determination loop unit is disposed and the other sub-loop of the two sub-loops is disposed outside of the area in which the one loop is disposed, and wherein each of the plurality of loops of the sensing loop unit is for determining the plurality of candidates of the input point.
In a virtualized network computing environment, a method of determining host machines on which to place a virtual machine, the method comprising: determining that a virtual machine to be deployed to a host will use a differencing disk chain based off of one or more base disks; identifying one or more hosts having the one or more base disks already available to the one or more hosts; selecting one of the one or more hosts at which to place the virtual machine based on the one or more hosts having the one or more base disks already available to the one or more hosts; and placing the virtual machine at the selected host. determining that a virtual machine to be deployed to a host will use a differencing disk chain based off of one or more base disks; identifying one or more hosts having the one or more base disks already available to the one or more hosts; selecting one of the one or more hosts at which to place the virtual machine based on the one or more hosts having the one or more base disks already available to the one or more hosts; and placing the virtual machine at the selected host.
A gear matching device for performing gear matching so as to establish a rotational phase relationship between a rotary tool and a gear to be machined in which the rotary tool and the gear can mesh with each other, before gear machining is performed by causing the rotary tool and the gear to mesh with each other, and by then relatively rotating the rotary tool and the gear, the gear matching device comprising: workpiece holding means which is supported to be movable in the axial direction of the gear, and by which the gear can be pressed against workpiece rotating means so as to be rotatably held, wherein the workpiece rotating means is adapted to rotate the gear about the axis thereof; rotational phase detecting means which is provided to the workpiece holding means such that it faces the gear at a detecting position to detect the rotational phase thereof, when the workpiece holding means holds the gear; and characterised by machining error absorbing means (31,34,35,36,41;31,34,35,51,52) for absorbing a machining error in the axial direction of the gear to keep the rotational phase detecting means constantly at the detecting position in the axial direction of the gear when the workpiece holding means holds the gear. workpiece holding means which is supported to be movable in the axial direction of the gear, and by which the gear can be pressed against workpiece rotating means so as to be rotatably held, wherein the workpiece rotating means is adapted to rotate the gear about the axis thereof; rotational phase detecting means which is provided to the workpiece holding means such that it faces the gear at a detecting position to detect the rotational phase thereof, when the workpiece holding means holds the gear; and characterised by machining error absorbing means (31,34,35,36,41;31,34,35,51,52) for absorbing a machining error in the axial direction of the gear to keep the rotational phase detecting means constantly at the detecting position in the axial direction of the gear when the workpiece holding means holds the gear.
An applicator 1 for a cosmetic product, in particular for mascara, comprising: - a solid core 2 extending along a main longitudinal extension axis X and having two ends 5, 6; - a plurality of projections 4 protruding from the core 2 and being moulded with the core 2; the core 2 having a plurality of vacuum zones 12 for the product storage, alternating with prominence zones 11 for the eyelash combing, succeeding one another axially along its axis X, said vacuum zones 12 consisting of cylindrical sections 12, characterised in that the applicator has an outer envelope 13 and an inner envelope 14 nested one inside the other, said envelopes 13, 14 being formed by free ends of the projections 4, the inner envelope 14 having, from the axis of extension X, a radial extension which is smaller than the radial extension of the outer envelope 13, and in that said projections 4 are all inclined with respect to a direction perpendicular to the axis X, the projections 4 of the same row 7 all having the same inclination and the projections 4a forming the outer envelope 13 being inclined towards a first end 6 of the core, the so-called distal end 6, and the projections 4b forming the inner envelope 14 are inclined towards a second free end 5 of the core, the so-called proximal end 5. - a solid core 2 extending along a main longitudinal extension axis X and having two ends 5, 6; - a plurality of projections 4 protruding from the core 2 and being moulded with the core 2; characterised in that the applicator has an outer envelope 13 and an inner envelope 14 nested one inside the other, said envelopes 13, 14 being formed by free ends of the projections 4, the inner envelope 14 having, from the axis of extension X, a radial extension which is smaller than the radial extension of the outer envelope 13, and in that said projections 4 are all inclined with respect to a direction perpendicular to the axis X, the projections 4 of the same row 7 all having the same inclination and the projections 4a forming the outer envelope 13 being inclined towards a first end 6 of the core, the so-called distal end 6, and the projections 4b forming the inner envelope 14 are inclined towards a second free end 5 of the core, the so-called proximal end 5.