mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for generating a three-dimensional representation of a scene, the apparatus comprising: a sensor module comprising: an emitter for emitting a plurality of waves; and a receiver for receiving reflected waves that are reflected by one or more objects in the scene for generating a three-dimensional, 3D, representation of the scene; at least one actuation module for controlling one or both of a position or orientation of one or more components of the apparatus; at least one processor for generating a control signal for the actuation module for adjusting the position and/or orientation of one or more components of the apparatus, wherein the at least one processor is configured to generate, using the reflected waves, the 3D representation of the scene, or wherein the apparatus further comprises a communication module for transmitting data relating to the received reflected waves to a remote device or server configured to generate the 3D representation of the scene, characterised in that the actuation module comprises at least one shape memory alloy, SMA, actuator wire (1206a,b). a sensor module comprising: an emitter for emitting a plurality of waves; and a receiver for receiving reflected waves that are reflected by one or more objects in the scene for generating a three-dimensional, 3D, representation of the scene; an emitter for emitting a plurality of waves; and a receiver for receiving reflected waves that are reflected by one or more objects in the scene for generating a three-dimensional, 3D, representation of the scene; at least one actuation module for controlling one or both of a position or orientation of one or more components of the apparatus; at least one processor for generating a control signal for the actuation module for adjusting the position and/or orientation of one or more components of the apparatus, wherein the at least one processor is configured to generate, using the reflected waves, the 3D representation of the scene, or wherein the apparatus further comprises a communication module for transmitting data relating to the received reflected waves to a remote device or server configured to generate the 3D representation of the scene, characterised in that the actuation module comprises at least one shape memory alloy, SMA, actuator wire (1206a,b).
A combustor for a gas turbine engine comprising: a support shell (68, 70); a multiple of forward liner panels (72A, 72B) circumferentially mounted within the support shell (68, 70) via a multiple of studs, each of the multiple of forward liner panels (72A, 72B) having a non-linear axial edge (126Aa, Ab) therebetween to define a forward non-linear interface between each adjacent pair of the multiple of forward liner panels (72A, 72B); and a multiple of aft liner panels (74A, 74B) circumferentially mounted within the support shell (68, 70) via a multiple of studs aft of the multiple of forward liner panels (72A, 72B), each of the multiple of aft liner panels (74A, 74B) having an aft non-linear axial edge (126Ba, Bb) therebetween to define an aft non-linear interface between each adjacent pair of the multiple of aft liner panels (74A, 74B), characterised in that the forward and aft non-linear interfaces (130, 132) include curvilinear interfaces (130, 132). a support shell (68, 70); a multiple of forward liner panels (72A, 72B) circumferentially mounted within the support shell (68, 70) via a multiple of studs, each of the multiple of forward liner panels (72A, 72B) having a non-linear axial edge (126Aa, Ab) therebetween to define a forward non-linear interface between each adjacent pair of the multiple of forward liner panels (72A, 72B); and a multiple of aft liner panels (74A, 74B) circumferentially mounted within the support shell (68, 70) via a multiple of studs aft of the multiple of forward liner panels (72A, 72B), each of the multiple of aft liner panels (74A, 74B) having an aft non-linear axial edge (126Ba, Bb) therebetween to define an aft non-linear interface between each adjacent pair of the multiple of aft liner panels (74A, 74B), characterised in that the forward and aft non-linear interfaces (130, 132) include curvilinear interfaces (130, 132).
A method for discharging at least one electrical energy storage unit, in particular a capacitor or a standalone source of electrical energy, of an electrical circuit, the electrical circuit furthermore comprising a switching system comprising a plurality of legs each extending in parallel between a positive conductor and a negative conductor of a DC bus, each leg comprising at least two switching cells in series, the method comprising: - a first step during which a short circuit is produced in a first leg and a second leg so as to define a path allowing the discharge current to flow between the positive conductor and the negative conductor of the DC bus, and wherein the method comprises - a second step during which a short circuit is produced in the second leg and another leg so as to define a path allowing the discharge current to flow between the positive conductor and the negative conductor of the DC bus. - a first step during which a short circuit is produced in a first leg and a second leg so as to define a path allowing the discharge current to flow between the positive conductor and the negative conductor of the DC bus, and wherein the method comprises - a second step during which a short circuit is produced in the second leg and another leg so as to define a path allowing the discharge current to flow between the positive conductor and the negative conductor of the DC bus.
A crystalline free acid form of ( 2S,4R)-5-(5'-chloro-2'-fluoro-[1,1'-biphenyl]-4-yl)-2-(ethoxymethyl)-4-(3-hydroxyisoxazole-5-carboxamido)-2-methylpentanoic acid ( I '), wherein the crystalline form is characterized by a powder x-ray diffraction pattern comprising diffraction peaks at 2θ values of 6.51±0.20, 11.62±0.20, 13.05±0.20, 15.07±0.20, and 23.28±0.20.
A control system comprising an ionization electrode, a first flame sensor, a first signal conditioning circuit in operative communication with the ionization electrode, a second signal conditioning circuit in operative communication with the first flame sensor, an output unit, a processor in operative communication with the first and with the second signal conditioning circuits (15, 16) and with the output unit, the processor being configured to: receive first and second ionization signals indicative of ionization currents via the first signal conditioning circuit from the ionization electrode, the second ionization signal being received after the first ionization signal; receive first and second flame signals indicative of radiations originating from a flame (1a - 1c) via the second signal conditioning circuit from the first flame sensor, the second flame signal being received after the first flame signal; characterised in the processor being further configured to: produce a derived ionization signal as a function of the first and the second ionization signals; produce a derived flame signal as a function of the first and the second flame signals; determine if a flame lift-off condition exists based on the derived ionization signal and based on the derived flame signal; and if a flame lift-off condition exists, produce a safety signal and transmit the safety signal to the output unit. receive first and second ionization signals indicative of ionization currents via the first signal conditioning circuit from the ionization electrode, the second ionization signal being received after the first ionization signal; receive first and second flame signals indicative of radiations originating from a flame (1a - 1c) via the second signal conditioning circuit from the first flame sensor, the second flame signal being received after the first flame signal; characterised in the processor being further configured to: produce a derived ionization signal as a function of the first and the second ionization signals; produce a derived flame signal as a function of the first and the second flame signals; determine if a flame lift-off condition exists based on the derived ionization signal and based on the derived flame signal; and if a flame lift-off condition exists, produce a safety signal and transmit the safety signal to the output unit. produce a derived ionization signal as a function of the first and the second ionization signals; produce a derived flame signal as a function of the first and the second flame signals; determine if a flame lift-off condition exists based on the derived ionization signal and based on the derived flame signal; and if a flame lift-off condition exists, produce a safety signal and transmit the safety signal to the output unit.
Handling machine for labelling and/or printing onto containers, comprising a container table which can be rotated about a vertical machine axis, clamping stations (4, 24, 34) circulating thereon that comprise centring elements and control rollers for lowering the centring elements onto the containers, and a rotationally fixed lifting cam, the lifting cam being mounted on an upper machine part which is centrally adjustable in height with respect to the container table, characterised in that the control rollers are resiliently prestressed against the top and/or the bottom of the lifting cam by means of resilient elements and are arranged on both sides of the lifting cam at the top and bottom thereof.
An interdigitated cellular cushioning system comprising: a first sheet of resilient material including a first binding layer and a first array of void cell protruding from the first binding layer, and a second sheet of resilient material including a second binding layer and a second array of void cells protruding from the second binding layer, wherein the void cells (110,116) are configured to monotonically collapse under a monotonically increasing load, wherein a peak of each void cell in the first array contacts the second binding layer and a peak of each void cell in the second arrav contacts the first binding layer, and wherein at least one void cell in the first array is attached to the second binding layer and at least one void cell in the second array is attached to the first binding layer. a first sheet of resilient material including a first binding layer and a first array of void cell protruding from the first binding layer, and a second sheet of resilient material including a second binding layer and a second array of void cells protruding from the second binding layer, wherein the void cells (110,116) are configured to monotonically collapse under a monotonically increasing load, wherein a peak of each void cell in the first array contacts the second binding layer and a peak of each void cell in the second arrav contacts the first binding layer, and wherein at least one void cell in the first array is attached to the second binding layer and at least one void cell in the second array is attached to the first binding layer.
A method for producing a transgenic plant with increased content of 20-hydroxyecdysone, compared to a wild type plant, the method comprising: transforming a plant cell with a recombinant vector containing a gene encoding cytochrome P450, 85 family protein derived from spinach ( Spinacia oleracea) having the amino acid sequence represented by SEQ ID NO: 2; and, regenerating a plant from the transformed plant cell; whereby said transgenic plant is a dicot plant selected from the group consisting of potato, eggplant, tobacco, pepper, tomato, burdock, crown daisy, lettuce, balloon flower, spinach, chard, yam, celery, carrot, water parsley, parsley, Chinese cabbage, cabbage, Raphanus sativus for., raphnistroides MAK, watermelon, oriental melon, cucumber, zucchini, gourd, strawberry, soybean, mung bean, kidney, bean, sweet pea or a monocot plant such as rice, barley, wheat, rye, corn, sugar cane, oat, or onion. transforming a plant cell with a recombinant vector containing a gene encoding cytochrome P450, 85 family protein derived from spinach ( Spinacia oleracea) having the amino acid sequence represented by SEQ ID NO: 2; and, regenerating a plant from the transformed plant cell; whereby said transgenic plant is a dicot plant selected from the group consisting of potato, eggplant, tobacco, pepper, tomato, burdock, crown daisy, lettuce, balloon flower, spinach, chard, yam, celery, carrot, water parsley, parsley, Chinese cabbage, cabbage, Raphanus sativus for., raphnistroides MAK, watermelon, oriental melon, cucumber, zucchini, gourd, strawberry, soybean, mung bean, kidney, bean, sweet pea or a monocot plant such as rice, barley, wheat, rye, corn, sugar cane, oat, or onion.
A baffle for a silencer for a ventilation duct, which baffle is of rectangular shape as viewed both from the side and in vertical cross-section transverse to its longitudinal direction, comprises an acoustically damping material disposed in a shape-stabilising frame arrangement (12, 13, 14, 15) and comprises in its longitudinal direction three zones represented by: a forward end portion (a) of tapering shape comprising the front edge of the baffle and adapted to meeting and dividing an incoming air stream, a middle portion (b) having substantially the shape of a rectangular cuboid and provided with plane-parallel main surfaces for the acoustically damping material for absorbing noise from a passing air stream, and a rear end portion (c) of tapering shape comprising the rear edge of the baffle and adapted to regulating the bringing together of the divided and sound-damped air stream, wherein the frame arrangement (12, 13, 14, 15) has an aperture for each main surface and wherein the shape-stabilizing frame arrangement (12, 13, 14, 15) comprises a back disposed in the rear end portion (c), having a smaller width than the width of the baffle, characterized in that the rear end portion (c) comprises a prolongation of the main surfaces and in that the back is adapted to accommodating the rear edge of the acoustically damping material. a forward end portion (a) of tapering shape comprising the front edge of the baffle and adapted to meeting and dividing an incoming air stream, a middle portion (b) having substantially the shape of a rectangular cuboid and provided with plane-parallel main surfaces for the acoustically damping material for absorbing noise from a passing air stream, and a rear end portion (c) of tapering shape comprising the rear edge of the baffle and adapted to regulating the bringing together of the divided and sound-damped air stream, wherein the frame arrangement (12, 13, 14, 15) has an aperture for each main surface and wherein the shape-stabilizing frame arrangement (12, 13, 14, 15) comprises a back disposed in the rear end portion (c), having a smaller width than the width of the baffle, characterized in that the rear end portion (c) comprises a prolongation of the main surfaces and in that the back is adapted to accommodating the rear edge of the acoustically damping material.
An inhaler for delivering metered doses of powdered medicament, the inhaler having a plurality of compartments spaced in an annular array and each containing a metered dose of the medicament, a lever to displace the compartments one by one into line with an inhalation aperture that constitutes a mouthpiece, each compartment including radially inner and outer edges, the plurality of compartments being closed by a) sealing layer, characterised in that the inhaler has a mechanism (86, 87) adapted to lift the inner and outer edges of the sealing layer off the radially inner and outer edges of each compartment one by one as it is indexed to align with the inhalation aperture to open an air passageway defined by the compartment and the sealing layer so that, in use, on inhalation through the mouthpiece, air flow in the air flow passageway picks up and entrains the powder in the compartment to be drawn with the air out of the inhaler though the mouthpiece.
Method Individual headlight for a motor vehicle, comprising - at least one light source (2, 3) for emitting a first and a second light beam (4, 5), - a first and a second controllable deflection element (14, 15) for variably deflecting the first and second light beams (4, 5) onto a predefined illuminated surface within a first and second solid angle range (α1, α2) respectively, wherein illumination zones (18, 19) that are illuminated by said light beams (4, 5) correspond to the solid angle range (α1, α2) on the illuminated surface, characterised in that - the illuminated surface has two peripheral areas (22, 23, 24) and a central area (21, 25, 26), the two peripheral areas (22, 23, 24) making up a large part of the illuminated surface; - the deflection elements (14, 15) each comprise a micro-mirror and the brightness is smallest in the middle of the illumination zones (18, 19) and is largest at the edge of the illumination zones (18, 19); - the two illumination zones (18, 19) both extend into the central area (21, 25, 26) and each comprise only one of the two peripheral areas (22, 23, 24), so that a part of the edge of the respective illumination zone (18, 19) lies in the central area (21, 25, 26) and the brightness in the central area (21, 25, 26) is higher in comparison to the two peripheral areas (22, 23, 24). - at least one light source (2, 3) for emitting a first and a second light beam (4, 5), - a first and a second controllable deflection element (14, 15) for variably deflecting the first and second light beams (4, 5) onto a predefined illuminated surface within a first and second solid angle range (α1, α2) respectively, wherein illumination zones (18, 19) that are illuminated by said light beams (4, 5) correspond to the solid angle range (α1, α2) on the illuminated surface, - the illuminated surface has two peripheral areas (22, 23, 24) and a central area (21, 25, 26), the two peripheral areas (22, 23, 24) making up a large part of the illuminated surface; - the deflection elements (14, 15) each comprise a micro-mirror and the brightness is smallest in the middle of the illumination zones (18, 19) and is largest at the edge of the illumination zones (18, 19); - the two illumination zones (18, 19) both extend into the central area (21, 25, 26) and each comprise only one of the two peripheral areas (22, 23, 24), so that a part of the edge of the respective illumination zone (18, 19) lies in the central area (21, 25, 26) and the brightness in the central area (21, 25, 26) is higher in comparison to the two peripheral areas (22, 23, 24).
A remote control device (116, 202), comprising: a memory; a user interface; and a processor, configured to: receive an indication of a first user interaction via the user interface; transmit a first command message after receipt of the indication of the first user interaction, wherein the first command message comprises a first command, the first command comprising a first intensity level and a fade period, wherein the first command is configured to adjust a lighting device to the first intensity level over the fade period; transmit a second command message, after a transmission interval from when the first command message was transmitted, wherein the second command message comprises a second command, the second command comprising a second intensity level and the fade period, wherein the second command is configured to adjust the lighting device to the second intensity level over the fade period, and wherein the fade period is longer than the transmission interval. a memory; a user interface; and a processor, configured to: receive an indication of a first user interaction via the user interface; transmit a first command message after receipt of the indication of the first user interaction, wherein the first command message comprises a first command, the first command comprising a first intensity level and a fade period, wherein the first command is configured to adjust a lighting device to the first intensity level over the fade period; transmit a second command message, after a transmission interval from when the first command message was transmitted, wherein the second command message comprises a second command, the second command comprising a second intensity level and the fade period, wherein the second command is configured to adjust the lighting device to the second intensity level over the fade period, and wherein the fade period is longer than the transmission interval. receive an indication of a first user interaction via the user interface; transmit a first command message after receipt of the indication of the first user interaction, wherein the first command message comprises a first command, the first command comprising a first intensity level and a fade period, wherein the first command is configured to adjust a lighting device to the first intensity level over the fade period; transmit a second command message, after a transmission interval from when the first command message was transmitted, wherein the second command message comprises a second command, the second command comprising a second intensity level and the fade period, wherein the second command is configured to adjust the lighting device to the second intensity level over the fade period, and wherein the fade period is longer than the transmission interval.
A vascular disorder treatment system comprising: a first tube; a second tube slidably movable within said first tube; a containment bag associated with a distal end of said second tube; said containment bag having a non-expanded state and an expanded state; said containment bag sized to seat said containment bag at an entrance of a vascular disorder when in said expanded state; said containment bag having an opening for receiving an embolic agent for treatment of said vascular disorder: a pusher movable within said second tube; characterized by said pusher having a plunger at a distal end of the pusher, and said plunger having a larger diameter than said pusher; and a stopper ring near said distal end of said second tube, wherein said stopper ring is affixed to an inner surface of said second tube and arranged to prohibit movement of said plunger distally beyond said stopper ring, while said pusher is operative to move said containment bag through said stopper ring out of said second tube. a first tube; a second tube slidably movable within said first tube; a containment bag associated with a distal end of said second tube; said containment bag having a non-expanded state and an expanded state; said containment bag sized to seat said containment bag at an entrance of a vascular disorder when in said expanded state; said containment bag having an opening for receiving an embolic agent for treatment of said vascular disorder: a pusher movable within said second tube; characterized by said pusher having a plunger at a distal end of the pusher, and said plunger having a larger diameter than said pusher; and a stopper ring near said distal end of said second tube, wherein said stopper ring is affixed to an inner surface of said second tube and arranged to prohibit movement of said plunger distally beyond said stopper ring, while said pusher is operative to move said containment bag through said stopper ring out of said second tube. a pusher movable within said second tube; characterized by said pusher having a plunger at a distal end of the pusher, and said plunger having a larger diameter than said pusher; and a stopper ring near said distal end of said second tube, wherein said stopper ring is affixed to an inner surface of said second tube and arranged to prohibit movement of said plunger distally beyond said stopper ring, while said pusher is operative to move said containment bag through said stopper ring out of said second tube.