mhurhangee/ep-ind-claims huggingface dataset:
A downwind horizontal axis wind turbine, comprising: - a rotor having a hub and at least two or more blades; - a nacelle for pivotally supporting the rotor through a rotating shaft - connected to the hub; - a tower for supporting the nacelle; and - an independent pitch control unit capable of independently controlling pitch angles of the blades, respectively, - wherein the independent.pitch control unit controls the pitch angles so that all the blades are brought into a full feather position in case of a wind speed not less than a predetermined value, and subsequently controls the pitch angles of the individual blades so as to be sequentially reversed one by one, whereby all the blades are brought into an all-blade reversed full feather position, and further subsequently, carries out control so that the wind turbine idles in the all-blade reversed feather position. - a rotor having a hub and at least two or more blades; - a nacelle for pivotally supporting the rotor through a rotating shaft - connected to the hub; - a tower for supporting the nacelle; and - an independent pitch control unit capable of independently controlling pitch angles of the blades, respectively, - wherein the independent.pitch control unit controls the pitch angles so that all the blades are brought into a full feather position in case of a wind speed not less than a predetermined value, and subsequently controls the pitch angles of the individual blades so as to be sequentially reversed one by one, whereby all the blades are brought into an all-blade reversed full feather position, and further subsequently, carries out control so that the wind turbine idles in the all-blade reversed feather position.
A compound of formula II: wherein: R1-R5 and R10 are independently H, halo, OH, or C1-C9 alkyl, alkyl amine or alkyl ether, and each of C1-C9 alkyl, alkyl amine and alkyl ether is substituted with 0-3 groups selected from OR', =O, -NR'R", halogen, -OC R', -C 2 R', -CONR'R", - OC NR'R", -NR"C R', -NR"CO 2 R, -NR'-SO 2 NR"R'", -SO 2 R', -SO 2 NR'R", - NR"SO 2 R, -CN and -NO 2 and comprises 0-3 heteroatoms selected from N, O, S and P; R6-R7 are independently N or CR10; R8 is H or Me; R9 is H R', R", and R'" are each independently hydrogen, unsubstituted heteroalkyl, unsubstituted aryl, aryl substituted with 1-3 halogens, unsubstituted alkyl, unsubstituted alkoxy, unsubstituted thioalkoxy, or aryl-(C1-C4)alkyl, or a pharmaceutically acceptable salt thereof. R1-R5 and R10 are independently H, halo, OH, or C1-C9 alkyl, alkyl amine or alkyl ether, and each of C1-C9 alkyl, alkyl amine and alkyl ether is substituted with 0-3 groups selected from OR', =O, -NR'R", halogen, -OC R', -C 2 R', -CONR'R", - OC NR'R", -NR"C R', -NR"CO 2 R, -NR'-SO 2 NR"R'", -SO 2 R', -SO 2 NR'R", - NR"SO 2 R, -CN and -NO 2 and comprises 0-3 heteroatoms selected from N, O, S and P; R6-R7 are independently N or CR10; R8 is H or Me; R9 is H R', R", and R'" are each independently hydrogen, unsubstituted heteroalkyl, unsubstituted aryl, aryl substituted with 1-3 halogens, unsubstituted alkyl, unsubstituted alkoxy, unsubstituted thioalkoxy, or aryl-(C1-C4)alkyl, or a pharmaceutically acceptable salt thereof.
Sanitary valve (1, 201) having a main valve (4, 204) which has a movable diaphragm (5, 205) which can be moved between a closed position, in which closed position the diaphragm (5, 205) rests tightly on a valve seat (6, 206) of the main valve (4, 204), and between at least one open position, in which open position the diaphragm (5, 205) is spaced apart from the valve seat (6, 206), wherein the main valve (4, 204) is provided in the housing interior of an inner housing (2, 202), which inner housing (2, 202) is rotatably mounted in an outer housing (3, 203) about an axis of rotation, wherein a first valve opening (7, 207) is provided in the inner housing (2, 202), which are connected to a first valve opening (8, 208) in the outer housing (3, 203) in a fluid-conducting manner to a valve outlet of the sanitary valve (1, 201), which pair of first valve openings (7, 8; 207, 208) is arranged in the axis of rotation, wherein the inner housing (2, 202) has at least one second valve opening (9, 209) which is arranged externally with respect to the valve outlet and is assigned with at least one second valve opening (10, 11; 210) in the outer housing (3, 203) to at least one valve inlet (12, 13; 212) of the sanitary valve (1, 201), wherein the respectively mutually assigned second valve openings (9, 10, 11; 209, 210) can be brought into alignment by relative rotation of the inner and outer housing (2, 3; 202, 203) in such a way that the clear opening cross-section of the at least one valve inlet (12, 13; 212), which is left free by overlapping the respectively mutually assigned second valve openings (9, 10, 11; 209, 210), can be varied, wherein the inner housing (2, 202) has a pot-shaped lower housing part (14, 214), on the inside of the pot base of which projects a valve connection piece (15, 215) which connects the first valve opening (7, 207), forming the valve outlet, of the inner housing (2, 202) to the valve seat (6, 206) formed by the free sleeve end region of the valve connection piece (15, 215), characterized in that the lower housing part (14, 214) having the valve openings (7, 9; 207, 209) of the inner housing (2, 202) rests against the outer housing (3, 203) in a liquid-tight manner at least in an annular zone of the pot base lying on the outside with respect to the valve openings (7, 8, 9, 10, 11; 207, 208, 209, 210).
A lighting device, comprising: connection elements (10; 10a-10c); light-emitting elements; wherein the light-emitting elements are arranged on said connection elements (10; 10a-c) for an electronic connection to the at least one light-emitting element, at least one encapsulating material surrounding at least part of the connection elements (10; 10a-c), wherein at least one connection element (10; 10a-c) comprises at least one spring section, wherein the at least one spring section comprises from 1 winding to 200 windings, characterised in that one winding corresponds to a loop of the connection element around 360°, wherein the spring section comprises a flattened shape with a shorter dimension and a longer dimension, wherein the shorter dimension corresponds to a light-emitting direction of the at least one light-emitting element. connection elements (10; 10a-10c); light-emitting elements; wherein the light-emitting elements are arranged on said connection elements (10; 10a-c) for an electronic connection to the at least one light-emitting element, at least one encapsulating material surrounding at least part of the connection elements (10; 10a-c), wherein at least one connection element (10; 10a-c) comprises at least one spring section, wherein the at least one spring section comprises from 1 winding to 200 windings, characterised in that one winding corresponds to a loop of the connection element around 360°, wherein the spring section comprises a flattened shape with a shorter dimension and a longer dimension, wherein the shorter dimension corresponds to a light-emitting direction of the at least one light-emitting element.
A method comprising: Projecting amplitude modulated, continuous waveform light onto an occupant from a plurality of light sources corresponding to a respective plurality of a sensing arrangement outside of a vehicle; receiving reflections of the light source at a plurality of detectors corresponding to a respective plurality of a sensing arrangement having different views and located outside of the vehicle; determining three-dimensional data based on a time-of-flight of the reflections; and detecting the occupant based on the three-dimensional data comprising combining the outputs of the plurality of detectors to correlate occupant detection data. Projecting amplitude modulated, continuous waveform light onto an occupant from a plurality of light sources corresponding to a respective plurality of a sensing arrangement outside of a vehicle; receiving reflections of the light source at a plurality of detectors corresponding to a respective plurality of a sensing arrangement having different views and located outside of the vehicle; determining three-dimensional data based on a time-of-flight of the reflections; and detecting the occupant based on the three-dimensional data comprising combining the outputs of the plurality of detectors to correlate occupant detection data.
A pedal cycle drivetrain comprising: - an epicyclic gear train comprising: - a sun gear rotatable around a main axis; - a planet carrier rotatable around the main axis and carrying one or more planet gears meshed with the sun gear; and - an annulus (17; 17') rotatable around the main axis and meshed with the one or more planet gears; wherein the sun gear, the planet carrier, and the annulus are each exclusively in direct drive with one of: - an input including one or more pedals; - an output including a wheel hub rotatable around the main axis; and - a first electric motor (19; 19'), wherein varying angular velocity of the first electric motor corresponds to a varying effective transmission ratio between the input and the output. - an epicyclic gear train comprising: - a sun gear rotatable around a main axis; - a planet carrier rotatable around the main axis and carrying one or more planet gears meshed with the sun gear; and - an annulus (17; 17') rotatable around the main axis and meshed with the one or more planet gears; wherein the sun gear, the planet carrier, and the annulus are each exclusively in direct drive with one of: - an input including one or more pedals; - an output including a wheel hub rotatable around the main axis; and - a first electric motor (19; 19'), wherein varying angular velocity of the first electric motor corresponds to a varying effective transmission ratio between the input and the output. wherein the sun gear, the planet carrier, and the annulus are each exclusively in direct drive with one of: - an input including one or more pedals; - an output including a wheel hub rotatable around the main axis; and - a first electric motor (19; 19'), - an input including one or more pedals; - an output including a wheel hub rotatable around the main axis; and - a first electric motor (19; 19'), wherein varying angular velocity of the first electric motor corresponds to a varying effective transmission ratio between the input and the output.
A method for decoding video data comprising: receiving coded video data including multi-view video data and depth data corresponding to the video data; acquiring motion data for inter-view prediction of a coding unit of the multi-view video data from the depth data which is derived using a depth map picture to which the coding unit refers; performing inter-view prediction based on the motion data; and restoring video data according to the multi-view video data including the coding unit and the depth data based on the inter-view prediction, wherein the motion data for inter-view prediction of the coding unit of the multi-view video data is calculated using information derived from a depth map picture to which the coding unit refers, the information comprising depth values of the left uppermost position, right uppermost position, left lowermost position, and right lowermost position of a corresponding unit of the depth map picture to which the coding unit refers, wherein the motion data is calculated using a maximum disparity derived from the depth values in the depth map picture to which the coding unit refers; and wherein plural blocks included in the coding unit use in common the maximum disparity for motion data calculation of inter-view prediction. receiving coded video data including multi-view video data and depth data corresponding to the video data; acquiring motion data for inter-view prediction of a coding unit of the multi-view video data from the depth data which is derived using a depth map picture to which the coding unit refers; performing inter-view prediction based on the motion data; and restoring video data according to the multi-view video data including the coding unit and the depth data based on the inter-view prediction, wherein the motion data for inter-view prediction of the coding unit of the multi-view video data is calculated using information derived from a depth map picture to which the coding unit refers, the information comprising depth values of the left uppermost position, right uppermost position, left lowermost position, and right lowermost position of a corresponding unit of the depth map picture to which the coding unit refers, wherein the motion data is calculated using a maximum disparity derived from the depth values in the depth map picture to which the coding unit refers; and wherein plural blocks included in the coding unit use in common the maximum disparity for motion data calculation of inter-view prediction.
A lighting device comprised of a light emitting diode and a film or sheet or profile suitable for use as an optical reflector, comprising a layer of a melt-processable acrylic resin composition comprised of - an acrylic polymer and - a white pigment at not more than 40 weight % and - up to 20 weight % of a matting or diffusion agent; wherein said matting agent is selected from the group consisting of barium sulfate particles, aluminum oxide particles, silicon oxide particles, hollow particles, organic particles, and fluoropolymers and wherein the melt-processable acrylic resin composition has a melt flow rate (as measured in the description) of at more than 0.4 grams for 10 minutes under 3.8Kg at 230°C, wherein the film or the sheet or the profile further comprises a substrate film layer comprised of a thermoplastic polymer, or wherein the film or the sheet is a monolithic film or sheet. - an acrylic polymer and - a white pigment at not more than 40 weight % and - up to 20 weight % of a matting or diffusion agent; wherein said matting agent is selected from the group consisting of barium sulfate particles, aluminum oxide particles, silicon oxide particles, hollow particles, organic particles, and fluoropolymers and wherein the melt-processable acrylic resin composition has a melt flow rate (as measured in the description) of at more than 0.4 grams for 10 minutes under 3.8Kg at 230°C, wherein the film or the sheet or the profile further comprises a substrate film layer comprised of a thermoplastic polymer, or wherein the film or the sheet is a monolithic film or sheet.
A rupturable container comprising a planar flange, a recessed cavity and a lidding film secured to said flange, characterized by: a) a continuous inner seal having a self-rupturing seal area and a non-rupturing seal area, the continuous inner seal circumscribing the recessed cavity; b) a first appendicle seal; c) a second appendicle seal; wherein each of said appendicle seals (61; 62) is spaced apart from said continuous inner seal and positioned between said continuous inner seal and a peripheral edge of said container; and d) a discharge channel formed below the self rupturing area and between each end of appendicle seals (61; 62), the discharge channel being defined as the area between each end of appendicle seals (61,62) and between self-rupturing area to the corner edge of container, whereby the contents of said container are discharged by rupturing of said self-rupturing seal area when the recessed cavity is pressurized. a) a continuous inner seal having a self-rupturing seal area and a non-rupturing seal area, the continuous inner seal circumscribing the recessed cavity; b) a first appendicle seal; c) a second appendicle seal; wherein each of said appendicle seals (61; 62) is spaced apart from said continuous inner seal and positioned between said continuous inner seal and a peripheral edge of said container; and d) a discharge channel formed below the self rupturing area and between each end of appendicle seals (61; 62), the discharge channel being defined as the area between each end of appendicle seals (61,62) and between self-rupturing area to the corner edge of container, whereby the contents of said container are discharged by rupturing of said self-rupturing seal area when the recessed cavity is pressurized.
A method for machining flat workpieces, in particular metal sheets, or three-dimensional workpieces on a processing machine, in particular a machine tool or laser cutting machine, with the following method steps: a) capturing a live image of a workpiece (6; 6') to be machined from a three-dimensional perspective with an image capturing device for capturing two-dimensional images and displaying this captured live image; b) displaying at least one workpiece machining operation (10 1, 10 2, 10 3) to be performed as a result preview in the live image of the workpiece (6; 6'); c) manually repositioning the workpiece machining operation (10 1, 10 2, 10 3) to be performed in the live image of the workpiece (6; 6'); and d) performing the workpiece machining operation (10 1, 10 2, 10 3) on the workpiece (6; 6'), characterized in that the workpiece machining operation (10 1, 10 2, 10 3) to be performed is displayed by a predetermined forward transformation (T; T') of the workpiece machining operation (10 1, 10 2, 10 3) from the three-dimensional machine coordinate system into the two-dimensional live-image coordinate system, and the workpiece machining operation (10 1, 10 2, 10 3) is performed by a predetermined inverse transformation (T -1, T' -1) of the repositioned workpiece machining operation (10 1, 10 2, 10 3) from the two-dimensional live-image coordinate system into the three-dimensional machine coordinate system. a) capturing a live image of a workpiece (6; 6') to be machined from a three-dimensional perspective with an image capturing device for capturing two-dimensional images and displaying this captured live image; b) displaying at least one workpiece machining operation (10 1, 10 2, 10 3) to be performed as a result preview in the live image of the workpiece (6; 6'); c) manually repositioning the workpiece machining operation (10 1, 10 2, 10 3) to be performed in the live image of the workpiece (6; 6'); and d) performing the workpiece machining operation (10 1, 10 2, 10 3) on the workpiece (6; 6'),
Solenoid consisting of a coil that generates a magnetic field when electric current flows through said coil, a connection region for a current source, at least one current-carrying pin (4a, 4b, 4d), a pin provided for earthing an electrically conducting casing of the solenoid and a guiding piece, wherein the at least one current-carrying pin (4a, 4b, 4c) and the pin provided for earthing the casing are arranged at the connection region, and the current-carrying pin is in connection with a substantially rigid coil connector through a welding joint, and the coil connector is connected with the coil, and the current-carrying pin is positioned on its end facing away from the connection region by the guiding piece that is slid onto the current-carrying pin, wherein the connection region is arranged in the casing of the solenoid and the guiding piece is supported on the casing, wherein the slid-on guiding piece pushes the pin provided for earthing the casing onto the electrically conducting casing.
An elongate blank (10; 110/10A, 10B) for forming a tubular carton, said blank (10, 10A, 10B; 110) comprising a plurality of panels including; a top panel (18, 118), a first side panel (16, 116) hinged to a first side of the top panel (18, 118), a second side panel (20; 120) hinged to a second side of the top panel (18, 118), a first base panel (12; 112) hinged to the first side panel (16; 116) and a second base panel (24; 124) hinged to the second side panel (20; 120), the plurality of panels arranged in a row along a length of the blank, said panels being hingedly connected one to another in series, each of said panels having a pair of opposed free end edges disposed generally along the length of the blank, said each panel being formed along either free end edge thereof with a cut-out (70, 70A, 70C, 70B, 70D) so that said blank is provided along either longitudinal edge thereof with a plurality of tabs (72, 72A, 72B, 72C) each interposed between adjacent ones of said cut-outs (70, 70A, 70C, 70B, 70D), characterised in that the arrangement of cut-outs (70, 70A, 70C, 70B, 70D) and tabs (72, 72A, 72B, 72C) is asymmetrical about a notional line which is transverse to the longitudinal edges and bisects the top panel (18; 118).
A wireless power transmitter, comprising a power transmission controller configured to generate a first packet containing data for a first electronic devices and a second packet containing data for a second electronic device; a modulation/demodulation unit configured to modulate a carrier signal to contain the first packet or the second packet; a power conversion unit configured to form a wireless power signal for power transmission based on the modulated carrier signal, wherein the power transmission controller transmits the first packet through the wireless power signal, waits for a first response packet of the first packet within a first expiration period of time for the first response packet, and determines status information on the first electronic device as one of a normal state and a removed state based on whether or not the first response packet is received from the first electronic device within the first expiration period of time, and wherein the power transmission controller further transmits the second packet through the wireless power signal after the first expiration period of time for the first response packet, waits for a second response packet of the second packet within an second expiration period of time for the second response packet, and determines status information on the second electronic device as one of a normal state and a removed state based on whether or not the second response packet is received from the second electronic device within the second expiration period of time.
A method performed by a wireless device for performing random access to a network node, the method comprising: - receiving a set of downlink beam-specific reference signals, BRS, from the network node; - determining a preferred BRS based on the received signal power for each BRS in the set; - selecting, based on the preferred BRS, a random-access resource to be used for a random-access attempt to the network node according to one or more pre-defined association rules defining an association between a random access resource and a BRS; and - using the selected random-access resource for the random-access attempt to the network node, whereby the selected random-access resource indicates to the network node which downlink beam is preferred by the wireless device to be used for downlink transmissions, wherein the random access resource comprises a random-access preamble, wherein the selecting comprises selecting a random-access preamble from a set of random-access preambles to be used for the random-access attempt, wherein the selecting comprises selecting the random-access preamble from the set of random-access preambles using a function or look-up table, specified in a manual or standard, or given by prior broadcast signaling, or configured by dedicated signaling on an assisting legacy network of the wireless device. - receiving a set of downlink beam-specific reference signals, BRS, from the network node; - determining a preferred BRS based on the received signal power for each BRS in the set; - selecting, based on the preferred BRS, a random-access resource to be used for a random-access attempt to the network node according to one or more pre-defined association rules defining an association between a random access resource and a BRS; and - using the selected random-access resource for the random-access attempt to the network node, whereby the selected random-access resource indicates to the network node which downlink beam is preferred by the wireless device to be used for downlink transmissions,