mhurhangee/ep-ind-claims huggingface dataset:
An acousto-optic lens comprising: a first acousto-optic deflector arranged to support a first acoustic wave; a second acousto-optic deflector arranged to support a counter-propagating second acoustic wave; a driver for synthesizing first and second drive signals for said respective first and second acousto-optic deflectors; characterised in that said driver is arranged to synthesize the first drive signal that is phase-modulated by a non-sinusoidal first function that can be expressed as a Taylor series having one or more coefficients greater than second order; and in that said driver is arranged to synthesize the second drive signal that is phase-modulated by a non-sinusoidal second function that can be expressed as a Taylor series having one or more coefficients greater than second order. a first acousto-optic deflector arranged to support a first acoustic wave; a second acousto-optic deflector arranged to support a counter-propagating second acoustic wave; a driver for synthesizing first and second drive signals for said respective first and second acousto-optic deflectors; characterised in that said driver is arranged to synthesize the first drive signal that is phase-modulated by a non-sinusoidal first function that can be expressed as a Taylor series having one or more coefficients greater than second order; and in that said driver is arranged to synthesize the second drive signal that is phase-modulated by a non-sinusoidal second function that can be expressed as a Taylor series having one or more coefficients greater than second order.
An α-alumina wherein a crystallite size obtained by a Rietveld analysis is not greater than 95 nm, and a lattice strain obtained by the Rietveld analysis is not greater than 0.0020. a crystallite size obtained by a Rietveld analysis is not greater than 95 nm, and a lattice strain obtained by the Rietveld analysis is not greater than 0.0020.
Lighting module for a motor vehicle headlamp comprising first and second light radiation sources capable of emitting laser radiation (L1, L2) to a wavelength conversion device which is capable of re-emitting light radiation to an optical projection system in order to produce an illumination beam, the module comprising a single wavelength conversion device which is common to the laser radiation (L1, L2), characterised in that the first light radiation source comprises at least a first laser light source cooperating with a single reflector which is a mirror mounted fixedly or mounted in rotation about a horizontal axis and driven with a movement of small amplitude and low speed, that is less than 15°.s -1, preferably less than 10°.s -1, preferably less than 4°.s -1, and the second light source has at least one second laser light source which cooperates with at least one scanning system having at least one micromirror which is movable about a horizontal axis.
A method for calculating insertion indices for a phase leg of a DC to AC modular multilevel converter, the converter comprising one phase leg between upper and lower DC source common bars for each phase, each phase leg comprising two serially connected arms, wherein an AC output for each phase leg is connected between its two serially connected arms, wherein each arm comprises a number of submodules, wherein each submodule can be in a bypass state or a voltage insert mode, the insertion index comprising data representing the portion of available submodules that should be in the voltage insert mode for a particular arm, the method comprising the steps of: calculating a desired arm voltage for an upper arm connected to the upper DC source common bar and a lower arm connected to the lower DC source common bar, obtaining values representing actual total arm voltages in the upper arm and lower arm, respectively, and calculating insertion indices for the upper and lower arm, respectively, using the respective desired arm voltage and the respective value representing the total actual arm voltage; wherein the step of calculating desired arm voltages for a phase leg comprises calculating u CU t = u D / 2 - e V t - u diff t for the upper arm, and calculating u CL t = u D / 2 + e V t - u diff t for the lower arm, where u CU (t) represents desired upper arm voltage where u CL (t) represents desired lower arm voltage, u D represents a voltage between the upper and lower DC source common bars, e v (t) represents a reference inner AC output voltage and u diff (t) represents a control voltage to control a current passing through the whole phase leg, and calculating u diff t = u diff ⁢ 1 t + u diff ⁢ 2 t where u diff1 (t) represents a voltage obtained by summing energy in the arms of the leg and u diff2 (t) represents a voltage obtained by calculating a difference in energy between the arms of the leg. calculating a desired arm voltage for an upper arm connected to the upper DC source common bar and a lower arm connected to the lower DC source common bar, obtaining values representing actual total arm voltages in the upper arm and lower arm, respectively, and calculating insertion indices for the upper and lower arm, respectively, using the respective desired arm voltage and the respective value representing the total actual arm voltage; wherein the step of calculating desired arm voltages for a phase leg comprises calculating u CU t = u D / 2 - e V t - u diff t for the upper arm, and calculating u CL t = u D / 2 + e V t - u diff t for the lower arm, where u CU (t) represents desired upper arm voltage where u CL (t) represents desired lower arm voltage, u D represents a voltage between the upper and lower DC source common bars, e v (t) represents a reference inner AC output voltage and u diff (t) represents a control voltage to control a current passing through the whole phase leg, and calculating u diff t = u diff ⁢ 1 t + u diff ⁢ 2 t where u diff1 (t) represents a voltage obtained by summing energy in the arms of the leg and u diff2 (t) represents a voltage obtained by calculating a difference in energy between the arms of the leg.
Glass-tray set comprising a glass comprising a lower portion and a tray comprising a glass-holder comprising at least one compartment and a lateral wall that defines said compartment; said at least one compartment being suitable for housing the lower portion of the glass and having a longitudinal horizontal axis and a vertical axis; said at least one compartment comprising: - an engagement/disengagement station suitably dimensioned to engage/disengage a lower portion of the glass inside the compartment of the glass-holder, moving the glass along an axis coinciding with or parallel to the vertical axis; - a standing station wherein said glass is held firmly; - a passage section that provides communication between said engagement/disengagement station and said standing station; - vertical retention means suitably configured to prevent the vertical movement of the glass when the glass is disposed in said standing station; said vertical retention means cooperating with a corresponding profile of the lower portion of the glass; - horizontal retention means suitably configured to prevent the free movement of the glass along the longitudinal horizontal axis of the compartment between the engagement/disengagement station and the standing station; characterized in that said glass-holder comprises at least two compartments disposed one on top of the other, with increasing dimensions going from the bottom upwards. - an engagement/disengagement station suitably dimensioned to engage/disengage a lower portion of the glass inside the compartment of the glass-holder, moving the glass along an axis coinciding with or parallel to the vertical axis; - a standing station wherein said glass is held firmly; - a passage section that provides communication between said engagement/disengagement station and said standing station; - vertical retention means suitably configured to prevent the vertical movement of the glass when the glass is disposed in said standing station; said vertical retention means cooperating with a corresponding profile of the lower portion of the glass; - horizontal retention means suitably configured to prevent the free movement of the glass along the longitudinal horizontal axis of the compartment between the engagement/disengagement station and the standing station;
A work vehicle comprising: a driver's seat; a bonnet disposed forward of the seat; an engine arranged under the bonnet; and a diesel particulate filter and a selective catalytic reduction configured to purify an exhaust gas of the engine, the diesel particulate filter and the selective catalytic reduction being arranged under the bonnet and forward of the engine; a radiator configured to cool a coolant of the engine, the radiator being disposed under the bonnet characterised by the radiator being disposed forward of the diesel particulate filter and the selective catalytic reduction. a driver's seat; a bonnet disposed forward of the seat; an engine arranged under the bonnet; and a diesel particulate filter and a selective catalytic reduction configured to purify an exhaust gas of the engine, the diesel particulate filter and the selective catalytic reduction being arranged under the bonnet and forward of the engine; a radiator configured to cool a coolant of the engine, the radiator being disposed under the bonnet characterised by the radiator being disposed forward of the diesel particulate filter and the selective catalytic reduction.
A wet/dry vacuum cleaner comprising: a tank having an open top; a removable lid attached to the open top of the tank; a motor attached to the removable lid; a rotatable shaft extending from the motor; a vacuum impeller and a pump impeller each driven by the rotatable shaft; a switch having an ON position in which power is supplied to the motor and an OFF position in which power to the motor is interrupted; a float disposed in the tank; a plunger assembly attached to the removable lid; and a transmission rod connected between the float and the plunger assembly; characterized in that the plunger assembly has a spring and a plunger pin, the spring being configured to exert a biasing force against the plunger pin to urge the switch toward the OFF position in response to upward movement of the float. a tank having an open top; a removable lid attached to the open top of the tank; a motor attached to the removable lid; a rotatable shaft extending from the motor; a vacuum impeller and a pump impeller each driven by the rotatable shaft; a switch having an ON position in which power is supplied to the motor and an OFF position in which power to the motor is interrupted; a float disposed in the tank; a plunger assembly attached to the removable lid; and a transmission rod connected between the float and the plunger assembly; characterized in that the plunger assembly has a spring and a plunger pin, the spring being configured to exert a biasing force against the plunger pin to urge the switch toward the OFF position in response to upward movement of the float.
Apomorphine or a pharmaceutically acceptable salt thereof for use in the prevention and/or treatment of a haematological malignancy of myeloid lineage.
A lithium-containing transition metal oxide sputtering target for forming a lithium ion thin film secondary battery, the target obtainable using the method of any of claims 6-9, wherein the target is formed from a sintered compact of lithium-containing transition metal oxides having a hexagonal crystalline structure and a lithium-containing transition metal salt in which the molar ratio of Li/transition metal is 1.1 or more and 1.3 or less is used as a precursor, wherein: the sintered compact has a relative density of 90% or higher and an average grain size of ≥1 μm and ≤ 50μm.
A lighting control system of a building environment comprising: a control device including a user interface to detect an activation of a configuration mode of the lighting control system, the control device being configured to control wirelessly illumination for at least a portion of the building environment in response to a command input received at the user interface, wherein the control device comprises a control panel comprising multiple control buttons exposed at a front side of the control device, wherein the multiple control buttons are configured to be used individually to perform various functions of the lighting control system; and a lighting device configured to: receive wirelessly a message indicating that the activation of the configuration mode has been detected by the control device, await a wireless directional signal from a directional device included in the lighting control system in response to receiving the message indicating that the activation of the configuration mode has been detected, receive the wireless directional signal from the directional device subsequent to receiving the message, wherein a membership status of the lighting device in a device group is changed in response to receiving the wireless directional signal, the lighting control system being characterized in that the multiple control buttons are further configured to be used in conjunction with each other to perform other functions of the light control system, wherein the multiple control buttons are configured such that selecting two buttons (142, 146) of the multiple control buttons at about the same time activate the configuration mode of the lighting control system. wherein the control device comprises a control panel comprising multiple control buttons exposed at a front side of the control device, wherein the multiple control buttons are configured to be used individually to perform various functions of the lighting control system; and a lighting device configured to: receive wirelessly a message indicating that the activation of the configuration mode has been detected by the control device, await a wireless directional signal from a directional device included in the lighting control system in response to receiving the message indicating that the activation of the configuration mode has been detected, receive the wireless directional signal from the directional device subsequent to receiving the message, wherein a membership status of the lighting device in a device group is changed in response to receiving the wireless directional signal, receive wirelessly a message indicating that the activation of the configuration mode has been detected by the control device, await a wireless directional signal from a directional device included in the lighting control system in response to receiving the message indicating that the activation of the configuration mode has been detected, receive the wireless directional signal from the directional device subsequent to receiving the message, wherein a membership status of the lighting device in a device group is changed in response to receiving the wireless directional signal,
A loudspeaker assembly comprising a diaphragm, a voice coil mounted on the diaphragm to move with the diaphragm, a chassis, and a spider, wherein the spider extends across a gap between the chassis and the voice coil and comprises a plurality of legs, each leg extending radially across at least a portion of the gap; the diaphragm is configured to move from a neutral position to an extended position and wherein when the diaphragm is in the neutral position the cross-sectional shape of each leg follows a line which varies in height with respect to a reference plane, the reference plane being a plane perpendicular to the direction of movement of the voice coil, said line comprising first, second and third curves, the second curve being located in between the first and third curves and wherein the amplitude of the first and third curves is greater than the amplitude of the second curve and wherein either the first and third curves are convex and the second curve is concave, or the first and third curves are concave and the second curve is convex; and each concave curve extends from a local maximum to a local maximum via a local minimum and the amplitude of the curve is defined as the axial distance between said local minimum and the local maxima, and each convex curve extends from a local minimum to a local minimum via a local maximum and the amplitude of the curve is defined as the axial distance between said local maximum and the local minima, and in the case that the axial distance between the local maximum/minimum and each of the respective minima/maxima differs, the amplitude shall be taken as the larger of the two axial distances. the spider extends across a gap between the chassis and the voice coil and comprises a plurality of legs, each leg extending radially across at least a portion of the gap; the diaphragm is configured to move from a neutral position to an extended position and wherein when the diaphragm is in the neutral position the cross-sectional shape of each leg follows a line which varies in height with respect to a reference plane, the reference plane being a plane perpendicular to the direction of movement of the voice coil, said line comprising first, second and third curves, the second curve being located in between the first and third curves and wherein the amplitude of the first and third curves is greater than the amplitude of the second curve and wherein either the first and third curves are convex and the second curve is concave, or the first and third curves are concave and the second curve is convex; and each concave curve extends from a local maximum to a local maximum via a local minimum and the amplitude of the curve is defined as the axial distance between said local minimum and the local maxima, and each convex curve extends from a local minimum to a local minimum via a local maximum and the amplitude of the curve is defined as the axial distance between said local maximum and the local minima, and in the case that the axial distance between the local maximum/minimum and each of the respective minima/maxima differs, the amplitude shall be taken as the larger of the two axial distances.
Seal for a drain, such as a shower channel, the seal comprising: - a continuous watertight layer; - an adhesive zone arranged on the watertight layer; and - strips (4, 5) which are arranged along the sides of the zone and which are arranged on the watertight layer with a first part outside the zone, fixed to the watertight layer, and overlap the zone with a second free part, wherein at least the second part of the strips (4, 5) is provided with an adhesive layer, wherein protective foil is arranged on the adhesive layer zone, characterized in that protective foil is arranged also on the second parts of the strips (4, 5). - a continuous watertight layer; - an adhesive zone arranged on the watertight layer; and - strips (4, 5) which are arranged along the sides of the zone and which are arranged on the watertight layer with a first part outside the zone, fixed to the watertight layer, and overlap the zone with a second free part, wherein at least the second part of the strips (4, 5) is provided with an adhesive layer, wherein protective foil is arranged on the adhesive layer zone, characterized in that protective foil is arranged also on the second parts of the strips (4, 5).
A device configured as a woven, self-expanding stent for insertion into an anatomical structure, the device comprising: a plurality of strands woven together to form a stent body, each of said plurality of strands having two strand end portions (12, 14); a respective coupling structure coupled to each pair of strand end portions (12, 14) such that the number of coupling structures corresponds to the number of strands, the pair of strand end portions (12, 14) being aligned end-to-end and comprising strand end portions from a same strand or two different strands; wherein the pair of strand end portions (12, 14) includes nickel and titanium, and the coupling structure is not a strand of the device, wherein the coupling structure is secured to a first strand end portion of the pair of strand end portions (12, 14) by a first weld that forms a first welded region, the coupling structure is secured to a second strand end portion of the pair of strand end portions (12, 14) by a second weld that forms a second welded region, and the first and second welded regions (22, 24) are not directly connected to each other along a longitudinal axis of the coupling structure by another welded region, and wherein the coupling structure is positioned beneath a strand of the device such that the strand is positioned radially outward from the coupling structure. a plurality of strands woven together to form a stent body, each of said plurality of strands having two strand end portions (12, 14); a respective coupling structure coupled to each pair of strand end portions (12, 14) such that the number of coupling structures corresponds to the number of strands, the pair of strand end portions (12, 14) being aligned end-to-end and comprising strand end portions from a same strand or two different strands; wherein the pair of strand end portions (12, 14) includes nickel and titanium, and the coupling structure is not a strand of the device, wherein the coupling structure is secured to a first strand end portion of the pair of strand end portions (12, 14) by a first weld that forms a first welded region, the coupling structure is secured to a second strand end portion of the pair of strand end portions (12, 14) by a second weld that forms a second welded region, and the first and second welded regions (22, 24) are not directly connected to each other along a longitudinal axis of the coupling structure by another welded region, and wherein the coupling structure is positioned beneath a strand of the device such that the strand is positioned radially outward from the coupling structure.
A vaporization device assembly comprising: a battery with a mouthpiece end and an opposing vibration end, a first spacer made of dampening material at the mouthpiece end and a second spacer made of dampening material at the vibration end; a printed circuit board, a vibrator and a microprocessor housed in the second spacer; a coil holder configured to accommodate a ceramic coil for vaporizing vaporization substances, a vaporization chamber, and a plurality of wicks; a tank having a reservoir, a first and a second end, wherein the reservoir is configured for housing a vaporization substance; a reservoir plug which is accommodated in the first end of the tank; and a pressure sensor in pneumatic communication with the reservoir of the tank; wherein the battery is configured to supply electricity to the printed circuit board, the vibrator, the ceramic coil, and the microprocessor; wherein the mouthpiece end of the battery is electrically connected to the ceramic coil; wherein the pressure sensor is accommodated by the second spacer; and wherein the coil holder is positioned on a first side of the first spacer pointing towards the mouthpiece end, and the battery is positioned on a second side of the first spacer opposite the first side. a battery with a mouthpiece end and an opposing vibration end, a first spacer made of dampening material at the mouthpiece end and a second spacer made of dampening material at the vibration end; a printed circuit board, a vibrator and a microprocessor housed in the second spacer; a coil holder configured to accommodate a ceramic coil for vaporizing vaporization substances, a vaporization chamber, and a plurality of wicks; a tank having a reservoir, a first and a second end, wherein the reservoir is configured for housing a vaporization substance; a reservoir plug which is accommodated in the first end of the tank; and a pressure sensor in pneumatic communication with the reservoir of the tank; wherein the battery is configured to supply electricity to the printed circuit board, the vibrator, the ceramic coil, and the microprocessor; wherein the mouthpiece end of the battery is electrically connected to the ceramic coil; wherein the pressure sensor is accommodated by the second spacer; and wherein the coil holder is positioned on a first side of the first spacer pointing towards the mouthpiece end, and the battery is positioned on a second side of the first spacer opposite the first side.