mhurhangee/patent-ind-claim-en huggingface dataset:
An autonomous vehicle service system remote from the autonomous vehicle, comprising: a display device ; a receiver configured to receive transmitted data from an autonomous vehicle related to status of the autonomous vehicle and information from a third party (TP) related to road conditions issues, such as road closures or traffic; and a controller programmed to monitor the transmitted data related to the status of the autonomous vehicle and the road conditions, determine when the autonomous vehicle requires assistance based on the transmitted data, and, when the autonomous vehicle requires assistance, cause information related to the autonomous vehicle to be displayed on the display device ; wherein the autonomous vehicle is a first vehicle of a plurality of autonomous vehicles, and the controller is programmed to monitor transmitted data related to status of each of the plurality of autonomous vehicles, and determine when each of the plurality of autonomous vehicles requires assistance based on the transmitted data; wherein the controller is further programmed to prioritize the assistance required of each of the plurality of autonomous vehicles , and cause the display device to display an order of prioritization of the autonomous vehicles. a display device ; a receiver configured to receive transmitted data from an autonomous vehicle related to status of the autonomous vehicle and information from a third party (TP) related to road conditions issues, such as road closures or traffic; and a controller programmed to monitor the transmitted data related to the status of the autonomous vehicle and the road conditions, determine when the autonomous vehicle requires assistance based on the transmitted data, and, when the autonomous vehicle requires assistance, cause information related to the autonomous vehicle to be displayed on the display device ; wherein the autonomous vehicle is a first vehicle of a plurality of autonomous vehicles, and the controller is programmed to monitor transmitted data related to status of each of the plurality of autonomous vehicles, and determine when each of the plurality of autonomous vehicles requires assistance based on the transmitted data; wherein the controller is further programmed to prioritize the assistance required of each of the plurality of autonomous vehicles , and cause the display device to display an order of prioritization of the autonomous vehicles.
Apparatus for use in handling windscreens for installation in a vehicle, the apparatus comprising: a windscreen anchor assembly comprising a windscreen anchor device and an elongate support arm extending away from the windscreen anchor device, the elongate support arm including proximate one end a stop member greater than the width of the arm, the elongate support arm having cylindrical outer surface and a longitudinal axis and being a rigid fixed length arm; characterized by the anchor device being fixed to the support arm at the opposite end to the stop member at a fixed distance from the stop member along the longitudinal axis of the elongate support arm; wherein the stop member is positioned on the axis of the elongate support arm; and a mount assembly for supporting the windscreen anchor assembly , wherein the mount assembly includes a mount structure for engaging with the support arm such that the support arm can slide in its longitudinal direction relative to the mount structure between the anchor device at one end of the elongate support arm and the stop member at the other end of the elongate support arm , the stop member inhibits an end of the support arm from sliding past the mount structure . a windscreen anchor assembly comprising a windscreen anchor device and an elongate support arm extending away from the windscreen anchor device, the elongate support arm including proximate one end a stop member greater than the width of the arm, the elongate support arm having cylindrical outer surface and a longitudinal axis and being a rigid fixed length arm; characterized by the anchor device being fixed to the support arm at the opposite end to the stop member at a fixed distance from the stop member along the longitudinal axis of the elongate support arm; wherein the stop member is positioned on the axis of the elongate support arm; and a mount assembly for supporting the windscreen anchor assembly , wherein the mount assembly includes a mount structure for engaging with the support arm such that the support arm can slide in its longitudinal direction relative to the mount structure between the anchor device at one end of the elongate support arm and the stop member at the other end of the elongate support arm , the stop member inhibits an end of the support arm from sliding past the mount structure .
Power generator assembly including a rotating part and a non-rotating part , wherein the rotating part is adapted to be mounted on an end cap configured to hold a bearing of a train axle , characterized in that the rotating part includes first and second, circumferentially adjacent generator units (18a - 18d), wherein each generator unit includes at least one coil , at least one permanent magnet and two pole shoes formed by the at least one permanent magnet and having pole surfaces facing radially outward, wherein the non-rotating part includes an arc-shaped saddle adaptor in which the axle is mountable via the bearing, the arc-shaped saddle adapter being made of ferromagnetic material and, when the rotating part is mounted on the end cap and the axle is mounted in the arc-shaped saddle adaptor via the bearing, the arc-shaped saddle adapter is arranged with a radial distance to the pole surfaces , wherein the saddle adaptor is configured to close a magnetic circuit passing via the pole shoes of the at least one permanent magnet through the coil in a rotational position where the saddle adaptor overlaps with the pole shoes of the at least one permanent magnet of a generator unit (18a - 18d), and wherein a pole shoe of the first generator unit and an adjacent pole shoe of the second generator unit have the same magnetic polarity.
Aquarium gas cylinder for supplying an aquarium with CO2 gas generated in the aquarium gas cylinder , wherein the aquarium gas cylinder comprises: a receiving vessel for receiving a nutrient substrate and a reactant interacting with the nutrient substrate such that the nutrient substrate and the reactant react with each other to produce CO2 gas; a closure means for pressure-tightly sealing the receiving vessel ; a gas outflow means for, in particular pausable, CO2 gas extraction from the aquarium gas cylinder for the aquarium , wherein the CO2 gas, when flowing into the gas outflow means , has a desired gassing pressure (p_B); a gas cylinder pressure regulator for adjusting a gas cylinder pressure (p_G), characterized in that the gas cylinder pressure regulator is configured to set the gas cylinder pressure (p_G) so that it essentially corresponds to the desired gassing pressure (p_B). a receiving vessel for receiving a nutrient substrate and a reactant interacting with the nutrient substrate such that the nutrient substrate and the reactant react with each other to produce CO2 gas; a closure means for pressure-tightly sealing the receiving vessel ; a gas outflow means for, in particular pausable, CO2 gas extraction from the aquarium gas cylinder for the aquarium , wherein the CO2 gas, when flowing into the gas outflow means , has a desired gassing pressure (p_B); a gas cylinder pressure regulator for adjusting a gas cylinder pressure (p_G), characterized in that the gas cylinder pressure regulator is configured to set the gas cylinder pressure (p_G) so that it essentially corresponds to the desired gassing pressure (p_B).
An RNA replicon comprising a modified 5' replication recognition sequence of alphavirus, wherein the modified 5' replication recognition sequence is characterized in that all initiation codons have been removed from the conserved sequence element 2 (CSE 2) of the native alphavirus 5' replication recognition sequence and wherein the modified 5' replication recognition sequence comprises one or more additional nucleotide changes compensating for nucleotide pairing disruptions within one or more stem loops (SL) introduced by the removal of the initiation codons, wherein said CSE 2 spans from SL2 to SL4 and comprises the native initiation codon that encodes the first amino acid residues of alphavirus non-structural protein nsP1, and wherein the modified 5' replication recognition sequence is characterized by a predicted secondary structure that is equivalent to the predicted secondary structure of the 5' replication recognition sequence of alphaviral genomic RNA.
A method for decoding video, the method comprising: receiving (S1810) video information including information on a tile and information on a slice, wherein the tile is a common rectangular region of a column of largest coding units (LCUs) and a row of largest coding units (LCUs) and the slice comprises an integer number of largest coding units (LCUs); deriving (S1820) the tile and the slice in a current picture (300; 400; 500; 1110; 1210; 1410) based on the received video information, wherein the current picture (300; 400; 500; 1110; 1210; 1410) includes more than one tile and more than one slice; and performing decoding (S1830) for the current picture (300; 400; 500; 1110; 1210; 1410) based on the more than one tile and the more than one slice, characterized in that the following constraints are imposed: the largest coding units (LCUs) in the slice are ordered consecutively in tile scan order, in the tile scan order, largest coding units (LCUs) in each of the tiles in the slice are ordered in the raster scan order and the tiles in the slice are ordered in the raster scan order, and tile IDs specifying the tiles ordered in the slice are consecutive. receiving (S1810) video information including information on a tile and information on a slice, wherein the tile is a common rectangular region of a column of largest coding units (LCUs) and a row of largest coding units (LCUs) and the slice comprises an integer number of largest coding units (LCUs); deriving (S1820) the tile and the slice in a current picture (300; 400; 500; 1110; 1210; 1410) based on the received video information, wherein the current picture (300; 400; 500; 1110; 1210; 1410) includes more than one tile and more than one slice; and performing decoding (S1830) for the current picture (300; 400; 500; 1110; 1210; 1410) based on the more than one tile and the more than one slice, the largest coding units (LCUs) in the slice are ordered consecutively in tile scan order, in the tile scan order, largest coding units (LCUs) in each of the tiles in the slice are ordered in the raster scan order and the tiles in the slice are ordered in the raster scan order, and tile IDs specifying the tiles ordered in the slice are consecutive.
An anchor for anchoring to an elevated worksite, the anchor including a shock absorbing portion formed from sheet metal, wherein the shock absorbing portion is configured to progressively distort under sudden loading, the shock absorbing portion having one or more serpentine shaped members each defining one or more serpentine shaped curves visible from a front view of the shock absorbing portion , the front view being defined to be the view facing the wider side of the shock absorbing portion , the shock absorbing portion having a curved profile defining one or more curves visible from a side view of the shock absorbing portion , the side view being defined to be the view facing the narrower side of the shock absorbing portion , rotated 90° from the front view, wherein the shock absorbing portion is configured to extend under sudden loading in a direction of the sudden loading so as to provide a first level of shock absorption in dissipating energy from the sudden loading, and when the sudden loading exceeds a certain amount the serpentine shaped curves are configured to further extend in the direction of the sudden loading to provide a second level of shock absorption in further dissipating energy from the sudden loading. a shock absorbing portion formed from sheet metal, wherein the shock absorbing portion is configured to progressively distort under sudden loading, the shock absorbing portion having one or more serpentine shaped members each defining one or more serpentine shaped curves visible from a front view of the shock absorbing portion , the front view being defined to be the view facing the wider side of the shock absorbing portion , the shock absorbing portion having a curved profile defining one or more curves visible from a side view of the shock absorbing portion , the side view being defined to be the view facing the narrower side of the shock absorbing portion , rotated 90° from the front view, wherein the shock absorbing portion is configured to extend under sudden loading in a direction of the sudden loading so as to provide a first level of shock absorption in dissipating energy from the sudden loading, and when the sudden loading exceeds a certain amount the serpentine shaped curves are configured to further extend in the direction of the sudden loading to provide a second level of shock absorption in further dissipating energy from the sudden loading.
A filter element comprising: (a) a construction of pleated filter media defining an interior volume ; the construction of pleated filter media having first and second opposing interior faces ; (b) first and second opposite end caps secured to opposite ends of the filter media; and (c) a support structure operably oriented in the interior volume ; wherein the support structure bridges the interior volume from the first opposing interior face to the second opposing interior face ; wherein the support structure comprises a plurality of molded spacers ; and wherein the spacers comprise molded polyurethane. (a) a construction of pleated filter media defining an interior volume ; the construction of pleated filter media having first and second opposing interior faces ; (b) first and second opposite end caps secured to opposite ends of the filter media; and (c) a support structure operably oriented in the interior volume ; wherein the support structure bridges the interior volume from the first opposing interior face to the second opposing interior face ; wherein the support structure comprises a plurality of molded spacers ; and wherein the spacers comprise molded polyurethane.
A spinning machine comprising: a draft device adapted to draft a fiber bundle (F); and a pneumatic spinning device arranged movable to a spinning position and a receded position, and adapted to produce a yarn (Y) by applying twists to the drafted fiber bundle (F) by injecting air to a spinning chamber while being located at the spinning position, the receded position being located further away from the draft device than the spinning position, characterized in that the spinning machine is configured to adjust at least one of a first timing (L) and a second timing (M), the first timing (L) being a timing at which injection of the air is stopped when a drafting operation of the draft device is stopped, and the second timing (M) being a timing at which the pneumatic spinning device starts being moved from the spinning position to the receded position when the drafting operation of the draft device is stopped, so that a length of a fiber bundle portion to be formed at a yarn end of the yarn can be adjusted, and that the spinning machine comprises a control section adapted to control an operation relating to the adjustment of at least one of the first timing (L) and the second timing (M). a draft device adapted to draft a fiber bundle (F); and a pneumatic spinning device arranged movable to a spinning position and a receded position, and adapted to produce a yarn (Y) by applying twists to the drafted fiber bundle (F) by injecting air to a spinning chamber while being located at the spinning position, the receded position being located further away from the draft device than the spinning position, characterized in that the spinning machine is configured to adjust at least one of a first timing (L) and a second timing (M), the first timing (L) being a timing at which injection of the air is stopped when a drafting operation of the draft device is stopped, and the second timing (M) being a timing at which the pneumatic spinning device starts being moved from the spinning position to the receded position when the drafting operation of the draft device is stopped, so that a length of a fiber bundle portion to be formed at a yarn end of the yarn can be adjusted, and that the spinning machine comprises a control section adapted to control an operation relating to the adjustment of at least one of the first timing (L) and the second timing (M).
An apparatus, comprising: a broad-area laser source configured to emit light, the emitted light comprising an emission axis and an emission pattern extending along the emission axis, the emission pattern comprising a sub-aperture portion located off of the center of the emission axis; a single-mode fiber associated with a fiber Bragg grating configured to spectrally selectively reflect back light from the sub-aperture portion to the broad-area laser source, wherein the single-mode fiber is a core of a dual-clad fiber, and wherein the fiber Bragg grating is configured to narrow a spectral width of an emission spectrum of the broad-area laser source by spectrally selective reflection and to stabilize a wavelength of the broad-area laser source; and coupling optics configured to couple at least a portion of the sub-aperture portion to the single-mode fiber, wherein the dual-clad fiber extends along a longitudinal central axis, and wherein the single-mode fiber core is offset from the longitudinal central axis, wherein the dual-clad fiber further comprises a second single-mode fiber core offset from the longitudinal central axis of the dual-clad fiber, wherein the emission pattern comprises a second sub-aperture portion located off of the center of the emission axis and wherein the second single-mode fiber core is associated with a second fiber Bragg grating configured to spectrally selectively reflect back light from the second sub-aperture portion to the broad-area laser source. a broad-area laser source configured to emit light, the emitted light comprising an emission axis and an emission pattern extending along the emission axis, the emission pattern comprising a sub-aperture portion located off of the center of the emission axis; a single-mode fiber associated with a fiber Bragg grating configured to spectrally selectively reflect back light from the sub-aperture portion to the broad-area laser source, wherein the single-mode fiber is a core of a dual-clad fiber, and wherein the fiber Bragg grating is configured to narrow a spectral width of an emission spectrum of the broad-area laser source by spectrally selective reflection and to stabilize a wavelength of the broad-area laser source; and coupling optics configured to couple at least a portion of the sub-aperture portion to the single-mode fiber, wherein
An isolated polypeptide comprising: an antibody or an antigen binding fragment thereof (AB), a cleavable moiety (CM) that comprises an amino acid sequence selected from the group consisting of SEQ ID NOs: 286, 305, 306, and 361-368, wherein the CM is a substrate for at least a matriptase protease or a u-plasminogen activator (uPA) protease, and a masking moiety (MM) that inhibits the ability of the AB to bind the antigen, wherein the MM is linked to the CM such that the isolated polypeptide in an uncleaved state comprises the structural arrangement from N-terminus to C-terminus as follows: MM-CM-AB; and wherein the MM does not interfere or compete with the AB for binding to the antigen in a cleaved state. an antibody or an antigen binding fragment thereof (AB), a cleavable moiety (CM) that comprises an amino acid sequence selected from the group consisting of SEQ ID NOs: 286, 305, 306, and 361-368, wherein the CM is a substrate for at least a matriptase protease or a u-plasminogen activator (uPA) protease, and a masking moiety (MM) that inhibits the ability of the AB to bind the antigen, wherein the MM is linked to the CM such that the isolated polypeptide in an uncleaved state comprises the structural arrangement from N-terminus to C-terminus as follows: MM-CM-AB; and wherein the MM does not interfere or compete with the AB for binding to the antigen in a cleaved state. MM-CM-AB; and wherein the MM does not interfere or compete with the AB for binding to the antigen in a cleaved state.
A method for producing a magnetic anisotropic rare earth sintered magnet comprising: a powder feeding step of feeding an alloy powder into a mold having side walls divided into two or more sections; a filling step of filling the alloy powder into the mold to prepare a filled molded-body; an orienting step of orienting the alloy powder in the filled molded-body by applying a magnetic field to the filled molded-body to prepare an oriented filled-molded-body; a retrieving step of detaching the side walls of the mold from the oriented filled-molded-body and retrieving the oriented filled-molded-body from the mold; and a sintering step of sintering the retrieved oriented filled-molded-body, wherein the filling step and the orienting step are performed at different locations, and wherein the mold is not carried in the sintering step. a powder feeding step of feeding an alloy powder into a mold having side walls divided into two or more sections; a filling step of filling the alloy powder into the mold to prepare a filled molded-body; an orienting step of orienting the alloy powder in the filled molded-body by applying a magnetic field to the filled molded-body to prepare an oriented filled-molded-body; a retrieving step of detaching the side walls of the mold from the oriented filled-molded-body and retrieving the oriented filled-molded-body from the mold; and a sintering step of sintering the retrieved oriented filled-molded-body, wherein the filling step and the orienting step are performed at different locations, and