mhurhangee/ep-ind-claims huggingface dataset:
A method of applying a coating onto a surface, the method comprising: heating a eutectic aluminum-silicon matrix power to about its melting temperature, the powder having an 88/12 weight percent ratio and a bimodal particle size distribution, wherein the fine particles have a diameter of less than 45 microns and the coarse particles have a diameter of greater than 75 microns, wherein the matrix powder has a loading of between 33% and 90% by weight of fine particles and a loading of between 10% and 66% by weight of coarse particles and wherein the matrix powder has a molten fraction of between about 33% and about 90% by volume at about a melting temperature of the matrix material; spraying the matrix powder at the surface at a velocity sufficient to adhere the matrix powder to the surface; spraying a filler material in powder form at the surface at a velocity sufficient to adhere the filler material to the surface; and forming a spray coating material that contains fully molten and partially molten matrix powder and filter material powder during deposition that forms a metal matrix composite when deposited with the filler material interspersed in the metal matrix. heating a eutectic aluminum-silicon matrix power to about its melting temperature, the powder having an 88/12 weight percent ratio and a bimodal particle size distribution, wherein the fine particles have a diameter of less than 45 microns and the coarse particles have a diameter of greater than 75 microns, wherein the matrix powder has a loading of between 33% and 90% by weight of fine particles and a loading of between 10% and 66% by weight of coarse particles and wherein the matrix powder has a molten fraction of between about 33% and about 90% by volume at about a melting temperature of the matrix material; spraying the matrix powder at the surface at a velocity sufficient to adhere the matrix powder to the surface; spraying a filler material in powder form at the surface at a velocity sufficient to adhere the filler material to the surface; and forming a spray coating material that contains fully molten and partially molten matrix powder and filter material powder during deposition that forms a metal matrix composite when deposited with the filler material interspersed in the metal matrix.
A locking device for supporting members for an operating machine, said supporting members being arranged on a chassis or load-bearing frame and being adapted to be extended, swung out or telescoped from a retracted transport position into an extended operating position, said locking device having a locking bolt which is displaceable, between a locking position and an unlocking position, in a housing which is fixed to the frame and is arranged transversely with respect to the pull-out direction of the support member, and is biased in the direction of the locking position under the influence of a spring, having an actuating member which displaces the locking bolt between the locking position and the unlocking position, and having an engagement and guiding member (24, 26, 28) for the locking bolt, said engagement and guiding member being arranged rigidly on the supporting member, wherein the engagement and guiding member (24, 26, 28) comprises a cam (38, 40, 42) which pushes the locking bolt into a release position and wherein in the release position the locking bolt is movable automatically into its locking position, characterized in that at least two engagement and guiding members (24, 26, 28) are provided, one of which extends without interruption between a first engagement position for the locking bolt in the region of the retracted transport position of the supporting member and a second engagement position for the locking bolt in the region of the fully extended, swung-out or telescoped operating position of the supporting member, and the second engagement and guiding member comprising an engagement position (C, D) which is disposed between the first and second engagement positions.
A method for determining the amount of reverse triiodothyronine in a sample by mass spectrometry, said method comprising: a. subjecting rT3 from the sample to high turbulence liquid chromatography (HTLC) followed by high performance liquid chromatography (HPLC); b. ionizing the rT3 and an internal standard to generate at least one rT3 ion and at least one internal standard ion detectable by mass spectrometry; c. determining the amount of said at least one rT3 ion and the amount of said at least one internal standard ion by mass spectrometry; and d. determining the amount of rT3 in the sample, comprising comparing the amount of said at least one rT3 ion and the amount of said at least one internal standard ion. a. subjecting rT3 from the sample to high turbulence liquid chromatography (HTLC) followed by high performance liquid chromatography (HPLC); b. ionizing the rT3 and an internal standard to generate at least one rT3 ion and at least one internal standard ion detectable by mass spectrometry; c. determining the amount of said at least one rT3 ion and the amount of said at least one internal standard ion by mass spectrometry; and d. determining the amount of rT3 in the sample, comprising comparing the amount of said at least one rT3 ion and the amount of said at least one internal standard ion.
Method for the manufacture of a piece of apparel, comprising the steps of: a. obtaining body data representative of at least one dimension of at least a part of a user's body; b. obtaining pattern data representative of at least one pattern design to be applied to the piece of apparel to be manufactured; c. generating, based on the body data and the pattern data, manufacturing data adapted to be processed by a manufacturing machine; and d. sending the manufacturing data to a manufacturing machine for processing and for manufacturing at least a part of the piece of apparel; e. characterized by step b. comprising the step of modifying the pattern data by the user. a. obtaining body data representative of at least one dimension of at least a part of a user's body; b. obtaining pattern data representative of at least one pattern design to be applied to the piece of apparel to be manufactured; c. generating, based on the body data and the pattern data, manufacturing data adapted to be processed by a manufacturing machine; and d. sending the manufacturing data to a manufacturing machine for processing and for manufacturing at least a part of the piece of apparel; e. characterized by step b. comprising the step of modifying the pattern data by the user.
A submersible well pump assembly, comprising: a pump; a motor; a pressure equalizer housing (23,69) between the pump and the motor, the housing (23, 69) having an axis (32, 77), a motor end connector (27, 73) and a pump end connector (25, 71); a rotatable drive shaft (31, 75) extending within the housing (23, 69) on the axis (32, 77) through the motor end connector (27, 73) and the pump end connector (25, 71); a well fluid inlet path (26, 81) that admits well fluid into the housing (23, 69); a hub assembly (39, 90) in the housing (23, 69) through which the shaft (31, 75) extends, the hub assembly (39, 90) being pivotal about the axis (32, 77) relative to the housing (23, 69); a communication passage (55, 99) in the hub assembly (39, 90) that has a first opening (53, 111) in communication with lubricant in the motor and a second opening (62, 101) that is spaced laterally from the axis (32, 77) and in communication with the well fluid in the housing (23, 69); and a counterweight (63, 103) eccentrically mounted to the hub assembly (39, 90) that pivots the second opening (62, 101) of the communication passage (55, 99) above the axis (32, 77) while the axis (32, 77) is horizontal, characterised by a non rotating guide tube (29, 83) in the housing (23, 69) through which the shaft (31, 75) extends, and the hub assembly (39, 90) is pivotally mounted to the guide tube (29, 83). a pump; a motor; a pressure equalizer housing (23,69) between the pump and the motor, the housing (23, 69) having an axis (32, 77), a motor end connector (27, 73) and a pump end connector (25, 71); a rotatable drive shaft (31, 75) extending within the housing (23, 69) on the axis (32, 77) through the motor end connector (27, 73) and the pump end connector (25, 71); a well fluid inlet path (26, 81) that admits well fluid into the housing (23, 69); a hub assembly (39, 90) in the housing (23, 69) through which the shaft (31, 75) extends, the hub assembly (39, 90) being pivotal about the axis (32, 77) relative to the housing (23, 69); a communication passage (55, 99) in the hub assembly (39, 90) that has a first opening (53, 111) in communication with lubricant in the motor and a second opening (62, 101) that is spaced laterally from the axis (32, 77) and in communication with the well fluid in the housing (23, 69); and a counterweight (63, 103) eccentrically mounted to the hub assembly (39, 90) that pivots the second opening (62, 101) of the communication passage (55, 99) above the axis (32, 77) while the axis (32, 77) is horizontal,
A process for extracting flowering tops of Calendula officinalis comprising the following stages: a) providing flowering tops of Calendula officinalis; b) subjecting said flowering tops to extraction with carbon dioxide in supercritical phase at a temperature comprised between 60 and 70°C and at a pressure comprised between 600 and 700 bar, for a time period comprised between 200 and 250 min; c) decreasing the pressure to 200-300 bar and collecting the extract A thus obtained; d) further decreasing the pressure to 60-70 bar and collecting the extract B thus obtained. a) providing flowering tops of Calendula officinalis; b) subjecting said flowering tops to extraction with carbon dioxide in supercritical phase at a temperature comprised between 60 and 70°C and at a pressure comprised between 600 and 700 bar, for a time period comprised between 200 and 250 min; c) decreasing the pressure to 200-300 bar and collecting the extract A thus obtained; d) further decreasing the pressure to 60-70 bar and collecting the extract B thus obtained.
An optical image stabilizer for a camera lens module, comprising: a housing fixed to a case of the camera lens module; an image sensor assembly housed in the housing; and piezoelectric actuators fixed to the housing, each piezoelectric actuator has a single tip; and wherein the driving tips of the piezoelectric actuators are formed in a curved shape and make a point contact with the image sensor assembly, and each of the piezoelectric actuators are configured to be driven to move the driving tips at high speed in a specific direction and at a lower speed in another direction opposite to the specific direction, respectively; the image sensor assembly comprises: a heat sink; a first printed circuit board attached to the heat sink; and an image sensor mounted on the first printed circuit board; wherein the first printed circuit board extends to surround the heat sink and the driving tips are in point contact with the heat sink, and wherein at least one of the driving tips moves at lower speed in the opposite direction and rubs against the image sensor assembly, and the image sensor assembly and/or heat sink move(s) along in the another direction in which the at least one driving tip moves at lower speed on a plane perpendicular to a photographing direction, wherein at least one magnetic substance mounted on the housing draws the heat sink against the housing. a housing fixed to a case of the camera lens module; an image sensor assembly housed in the housing; and piezoelectric actuators fixed to the housing, each piezoelectric actuator has a single tip; and an image sensor assembly housed in the housing; and piezoelectric actuators fixed to the housing, each piezoelectric actuator has a single tip; and wherein the driving tips of the piezoelectric actuators are formed in a curved shape and make a point contact with the image sensor assembly, and each of the piezoelectric actuators are configured to be driven to move the driving tips at high speed in a specific direction and at a lower speed in another direction opposite to the specific direction, respectively; the image sensor assembly comprises: a heat sink; a first printed circuit board attached to the heat sink; and an image sensor mounted on the first printed circuit board; a heat sink; a first printed circuit board attached to the heat sink; and an image sensor mounted on the first printed circuit board; wherein the first printed circuit board extends to surround the heat sink and the driving tips are in point contact with the heat sink, and wherein at least one of the driving tips moves at lower speed in the opposite direction and rubs against the image sensor assembly, and the image sensor assembly and/or heat sink move(s) along in the another direction in which the at least one driving tip moves at lower speed on a plane perpendicular to a photographing direction, wherein at least one magnetic substance mounted on the housing draws the heat sink against the housing.
A communications device comprising: means for identifying an acceptable cell; means for determining a Radio Access Technology, RAT, supported by the cell; means for selecting the cell if the determined RAT indicates that the cell can provide a circuit switched, CS, emergency call service; and means for rejecting the cell if the determined RAT indicates that the cell cannot provide a CS or packet switched, PS, emergency call service; wherein if said determining means determines that the radio access technology is E-UTRA, then the determining means is operable to obtain cell system information output by the cell and to process the cell system information to determine if the cell can perform an emergency call service without redirection. means for identifying an acceptable cell; means for determining a Radio Access Technology, RAT, supported by the cell; means for selecting the cell if the determined RAT indicates that the cell can provide a circuit switched, CS, emergency call service; and means for rejecting the cell if the determined RAT indicates that the cell cannot provide a CS or packet switched, PS, emergency call service; wherein if said determining means determines that the radio access technology is E-UTRA, then the determining means is operable to obtain cell system information output by the cell and to process the cell system information to determine if the cell can perform an emergency call service without redirection.
Stripping blade for a forestry machine, which includes an attachment part for pivoting the stripping blade to the forestry machine, and at least a partly curved blade part attached to the said attachment part for stripping the branches of a tree, which blade part includes a blade surface that at least partly conforms to the trunk of the tree and a support structure conforming to the blade surface connecting to the outer surface of the blade surface relative to the tree, said stripping blade is mainly a cast structure, characterized in that the said support structure is a cast structure having a hollow space, which is arranged to act as a flow channel for a liquid/gas or to contain hoses acting as flow channels for a liquid/gas, in order to transfer a liquid/gas.
A power transmission device having a surface, a part of which defines a power transmission plane, the device comprising: a power transmission circuit converting DC power into AC power; a power transmission coil structure adapted for wirelessly transmitting the converted AC power to a power receiving coil of a power receiving device via the power transmission plane, the power transmission coil structure comprising 2N planar coils, N being an integer greater than or equal to two, stacked along a direction normal to the power transmission plane, the power transmission coil structure being disposed on a side toward the power transmission plane in the power transmission device; and a magnetic substance disposed on a side of the power transmission coil structure opposite from the power transmission plane in the power transmission device, characterized in that the 2N planar coils constitute coil groups including a coil group in which an i'th planar coil closest to the power transmission plane out of the 2N planar coils and the i'th planar coil closest to the magnetic substance out of the 2N planar coils are connected in series, where i denotes an integer between one and N, and the coil groups are connected in parallel to each other. a power transmission circuit converting DC power into AC power; a power transmission coil structure adapted for wirelessly transmitting the converted AC power to a power receiving coil of a power receiving device via the power transmission plane, the power transmission coil structure comprising 2N planar coils, N being an integer greater than or equal to two, stacked along a direction normal to the power transmission plane, the power transmission coil structure being disposed on a side toward the power transmission plane in the power transmission device; and a magnetic substance disposed on a side of the power transmission coil structure opposite from the power transmission plane in the power transmission device, characterized in that the 2N planar coils constitute coil groups including a coil group in which an i'th planar coil closest to the power transmission plane out of the 2N planar coils and the i'th planar coil closest to the magnetic substance out of the 2N planar coils are connected in series, where i denotes an integer between one and N, and the coil groups are connected in parallel to each other.
An oral care composition comprising a zinc-amino acid-halide complex; wherein the amino acid is lysine, in free or orally acceptable salt form; wherein the composition is in the form of a toothpaste, powder, cream, strip, or gum and wherein the zinc-amino acid-halide complex is a zinc lysine chloride complex having the chemical structure [Zn(C 6 H 14 N 2 O 2) 2 Cl] + Cl -, in solution of the cationic cation (e.g., [Zn(C 6 H 14 N 2 O 2) 2 Cl] +) and the chloride anion.
Illumination system for a projection device, the illumination system comprising a light source (10, 12, 14), a color wheel (20, 22) and a drive-unit for driving the light source (10, 12, 14), - the color wheel (20, 22) comprising a plurality of color segments (R, G, B) adapted to determine a color of the light emitted by the illumination system, the color wheel (20, 22) being configured for sequentially positioning color segments (R, G, B) from the plurality of color segments (R, G, B) in an optical path between the light source (10, 12, 14) and a light output window of the illumination system by rotating the color wheel (20, 22), a spoke of the color wheel (20, 22) being a boundary between two adjacent color segments (R, G, B), - the light source (10, 12, 14) comprising a first light-emitting unit and a second light-emitting unit each adapted to emit light towards the light output window of the illumination system, - the drive-unit being configured for switching off the first light-emitting unit during a time interval when the spoke transits the first optical path, characterized in that the first light-emitting unit, the second light-emitting unit and the spoke are configured to prevent the spoke, when transiting the optical path between the light source (10, 12, 14) and the light output window, to simultaneously transit a first optical path between the first light-emitting unit and the light output window and a second optical path between the second light-emitting unit and the light output window. - the color wheel (20, 22) comprising a plurality of color segments (R, G, B) adapted to determine a color of the light emitted by the illumination system, the color wheel (20, 22) being configured for sequentially positioning color segments (R, G, B) from the plurality of color segments (R, G, B) in an optical path between the light source (10, 12, 14) and a light output window of the illumination system by rotating the color wheel (20, 22), a spoke of the color wheel (20, 22) being a boundary between two adjacent color segments (R, G, B), - the light source (10, 12, 14) comprising a first light-emitting unit and a second light-emitting unit each adapted to emit light towards the light output window of the illumination system, - the drive-unit being configured for switching off the first light-emitting unit during a time interval when the spoke transits the first optical path,
A guide wire system comprising: a guide wire having a distal end and a proximal end, wherein the guide wire comprises a superelastic material that is configured to (i) transition from a first configuration to a second configuration responsive to a force applied to the guide wire and (ii) return from the second configuration to the first configuration responsive to the force being removed from the guide wire; a first connector coupled to the proximal end of the guide wire; a second connector coupled to the guide wire between the distal end and the proximal end; an electromagnetic sensor coupled to the distal end of the guide wire; and a polymeric tube surrounding at least a portion of the guide wire and at least a portion of the electromagnetic sensor. a guide wire having a distal end and a proximal end, wherein the guide wire comprises a superelastic material that is configured to (i) transition from a first configuration to a second configuration responsive to a force applied to the guide wire and (ii) return from the second configuration to the first configuration responsive to the force being removed from the guide wire; a first connector coupled to the proximal end of the guide wire; a second connector coupled to the guide wire between the distal end and the proximal end; an electromagnetic sensor coupled to the distal end of the guide wire; and a polymeric tube surrounding at least a portion of the guide wire and at least a portion of the electromagnetic sensor.