mhurhangee/ep-ind-claims huggingface dataset:
A system for verifying contents of a vehicle, the system comprising: - a weigh scale that is configured to weigh the vehicle and output a weight signal indicative of a weight of the vehicle; characterized by - a scanner that is configured to scan the contents of at least a portion of the vehicle and output a volume signal indicative of a volume of the contents; and - a verification system including a verification control unit that is configured to: - receive the weight signal and the volume signal, - determine an actual weight of the contents based on the weight signal and a known weight of the vehicle, - determine an actual volume of the contents based on the volume signal, - determine an actual density of the contents based on the actual weight of the contents and the actual volume of the contents, and - compare an actual density of the contents with a known density of declared contents to verify a contents declaration. - a weigh scale that is configured to weigh the vehicle and output a weight signal indicative of a weight of the vehicle; characterized by - a scanner that is configured to scan the contents of at least a portion of the vehicle and output a volume signal indicative of a volume of the contents; and - a verification system including a verification control unit that is configured to: - receive the weight signal and the volume signal, - determine an actual weight of the contents based on the weight signal and a known weight of the vehicle, - determine an actual volume of the contents based on the volume signal, - determine an actual density of the contents based on the actual weight of the contents and the actual volume of the contents, and - compare an actual density of the contents with a known density of declared contents to verify a contents declaration. - receive the weight signal and the volume signal, - determine an actual weight of the contents based on the weight signal and a known weight of the vehicle, - determine an actual volume of the contents based on the volume signal, - determine an actual density of the contents based on the actual weight of the contents and the actual volume of the contents, and - compare an actual density of the contents with a known density of declared contents to verify a contents declaration.
A communique system for providing a communique, constituting program content concurrently delivered to a plurality of subscribers who are equipped with wireless subscriber devices (101, 101'), via a cellular communication network that includes a plurality of cell sites, each of which provides a plurality of wireless communication channels in a cell that covers a predetermined volume of space around a cell site transmitting antenna, comprising: processor means for selecting a plurality of cells in said cellular network, at least one of which fails to be contiguous with any of the remaining ones of said selected plurality of cells, to provide a communique to a plurality of subscribers who are authorized to receive said communique and who are served by said selected plurality of cells, independent of the presence of subscribers who are authorized to receive said communique and who are served by other cells of said cellular communication network; and router means (106C, 106N, 132, 142, 152, 163) for routing data, constituting said communique, from a selected program source to cell sites associated with said selected plurality of cells for concurrent transmission to wireless subscriber devices of subscribers who are authorized to receive said communique and who are served by said selected plurality of cells in at least one of said selected cell cites said transmission to said plurality of wireless subscriber devices being effected concurrently to more than one of said plurality of wireless subscriber devices via a one of said plurality of wireless communication channels; CHARACTERIZED BY said processor means comprising: coverage manager means for creating an extent of said communique in the content domain in space and time, wherein the processor means selecting the plurality of cells based on said extent. processor means for selecting a plurality of cells in said cellular network, at least one of which fails to be contiguous with any of the remaining ones of said selected plurality of cells, to provide a communique to a plurality of subscribers who are authorized to receive said communique and who are served by said selected plurality of cells, independent of the presence of subscribers who are authorized to receive said communique and who are served by other cells of said cellular communication network; and router means (106C, 106N, 132, 142, 152, 163) for routing data, constituting said communique, from a selected program source to cell sites associated with said selected plurality of cells for concurrent transmission to wireless subscriber devices of subscribers who are authorized to receive said communique and who are served by said selected plurality of cells in at least one of said selected cell cites said transmission to said plurality of wireless subscriber devices being effected concurrently to more than one of said plurality of wireless subscriber devices via a one of said plurality of wireless communication channels; coverage manager means for creating an extent of said communique in the content domain in space and time, wherein the processor means selecting the plurality of cells based on said extent.
Method of controlling a stack-lifting device for sheet-processing machines including a mechanism (4, 5) for lifting a stack including a stack lifting drive, and means for detecting the front height of the stack, and a height-adjustable suction head having means for separating and conveying the sheets as well as means (25, 26) for detecting the rear upper edge of the stack, characterized by the following steps of a) calculating the rotary speed of the stack-lifting drive from the machine speed and the sheet thickness in a controller; and thus the stack lifting speed; b) lifting the stack at the speed that has been calculated in accordance with a); c) measuring the current position of the rear upper edge by means of the sensors and the tracer foot at a specified machine angle; d) adapting the calculated rotary speed if the measurement in accordance with c) finds a deviation from the intended position; e) measuring the front upper edge of the stack by means of the sensor at a specified machine angle in a controller; f) adapting the suction head height if the measurement in accordance with e) has found a deviation from the intended position; g) repeating steps c) to f). a) calculating the rotary speed of the stack-lifting drive from the machine speed and the sheet thickness in a controller; and thus the stack lifting speed; b) lifting the stack at the speed that has been calculated in accordance with a); c) measuring the current position of the rear upper edge by means of the sensors and the tracer foot at a specified machine angle; d) adapting the calculated rotary speed if the measurement in accordance with c) finds a deviation from the intended position; e) measuring the front upper edge of the stack by means of the sensor at a specified machine angle in a controller; f) adapting the suction head height if the measurement in accordance with e) has found a deviation from the intended position; g) repeating steps c) to f).
A system for a gas turbine engine, comprising: a gear train with an axial centerline; and a gutter disposed radially outside of the axial centerline, the gutter at least partially circumscribing the gear train, and including: an inner surface; and a channel (44, 96, 106) configured to receive fluid directed out of the gear train, the channel (44, 96, 106) extending radially into the gutter from the inner surface to a channel end, and circumferentially to a channel outlet; at least a portion of the channel (44, 96, 106) has a cross-sectional channel geometry that tapers axially as the channel (44, 96, 106) extends radially towards the channel end; the cross-sectional channel geometry including an inner region (98, 108) and an outer region (100, 112); the inner region (98, 108) having a substantially rectangular geometry; and the outer region (100, 112) having a substantially rectangular geometry. a gear train with an axial centerline; and a gutter disposed radially outside of the axial centerline, the gutter at least partially circumscribing the gear train, and including: an inner surface; and a channel (44, 96, 106) configured to receive fluid directed out of the gear train, the channel (44, 96, 106) extending radially into the gutter from the inner surface to a channel end, and circumferentially to a channel outlet; an inner surface; and a channel (44, 96, 106) configured to receive fluid directed out of the gear train, the channel (44, 96, 106) extending radially into the gutter from the inner surface to a channel end, and circumferentially to a channel outlet; at least a portion of the channel (44, 96, 106) has a cross-sectional channel geometry that tapers axially as the channel (44, 96, 106) extends radially towards the channel end; the cross-sectional channel geometry including an inner region (98, 108) and an outer region (100, 112); the inner region (98, 108) having a substantially rectangular geometry; and the outer region (100, 112) having a substantially rectangular geometry.
Method for the manipulation-proof provision of a key certificate for a device-key (K pub), for a user device which is installed on a user's premises, by a server of a service provider which makes a service available to the user via the user device, wherein the server provides the key certificate to the user device if a signing request message received from the user device is successfully verified by the server by reference to a one-time password generated by the server for the user device, wherein a cryptographic device-key pair, which comprises a public device-key (K pub) and a private device-key (K priv) for the user device, is generated by the user device locally for the user device which is to be installed on the user's premises, wherein the user device compiles a signing request message for the locally generated public key (K pub), wherein the signing request message is combined logically with the one-time password for the user device which has been read out from the data medium, and wherein a keyed-hash value (HMAC) is calculated for at least one data field in the signing request message as a function of the one-time password for the user device and the locally generated public device-key (K pub). which is installed on a user's premises, by a server of a service provider which makes a service available to the user via the user device,
A device for detecting alternating voltage, comprising input terminals for the application of an alternating voltage (Vin) to be detected and output terminals, at which application of the alternating voltage (Vin) is indicated, wherein the input terminals and the output terminals are galvanically separated from each other by means of a coupler which is designed as an optocoupler, and wherein a light-emitting diode as a control element of the coupler is supplied with operating current from the applied alternating voltage, and a switching element of the coupler is connected to the output terminals, characterized in that the device has a zero-crossing detector for the alternating voltage (Vin) to be detected, which zero-crossing detector supplies the control element of the coupler with the operating current in pulses, and in that an RC element is arranged parallel to the terminals of the phototransistor of the optocoupler in such a way that it smoothes the signal which can be tapped at the output terminals in an analog manner.
An installation comprising a masonry wall, an object, screws and a fastening device for fastening the object to the masonry wall by means of the screws, wherein the masonry wall comprises a plurality of building blocks connected to each other by bed joints, the fastening device comprises a plate and at least one anchor element, wherein said plate comprises a first surface and an opposite second surface, the at least one anchor element is elongated and is fixed to the plate, at least a part of the anchor element projects perpendicular from the second surface of the plate and is embedded in at least one of said bed joints of the masonry wall, and wherein the second surface of the plate faces the wall, characterised in that the object is fastened to the plate by means of the screws, screwed through a part of the object and through the plate in a direction from the first surface thereof and into the building block.
An optical ferrule comprising: a substrate (202, 502, 702, 902, 1102, 1202, 1302, 1402); a molded structure (204, 504, 704, 904, 1104,1204, 1304, 1404), and comprising: a plurality of grooves (206, 506, 706, 906, 1306) for positioning a plurality of optical fibers (208, 508, 708, 908, 1108, 1308, 1408) therealong, respectively; and a reflector (210, 510, 710, 910, 1106,) formed on the molded structure and having a plurality of reflective surfaces (212, 512, 712, 912) formed thereon to reflect optical signals from ends of the plurality of optical fibers, respectively, or reflect incident optical signals towards the ends of the plurality of optical fibers, respectively; and an alignment structure disposed to be aligned to a corresponding alignment structure of a socket to which the optical ferrule is removably coupled by sliding or moving the optical ferrule in or opposite to an insertion direction; characterised in that the substrate is formed of a diced wafer, and the molded structure is formed on the substrate, and formed of a light curable material. a substrate (202, 502, 702, 902, 1102, 1202, 1302, 1402); a molded structure (204, 504, 704, 904, 1104,1204, 1304, 1404), and comprising: a plurality of grooves (206, 506, 706, 906, 1306) for positioning a plurality of optical fibers (208, 508, 708, 908, 1108, 1308, 1408) therealong, respectively; and a reflector (210, 510, 710, 910, 1106,) formed on the molded structure and having a plurality of reflective surfaces (212, 512, 712, 912) formed thereon to reflect optical signals from ends of the plurality of optical fibers, respectively, or reflect incident optical signals towards the ends of the plurality of optical fibers, respectively; and a plurality of grooves (206, 506, 706, 906, 1306) for positioning a plurality of optical fibers (208, 508, 708, 908, 1108, 1308, 1408) therealong, respectively; and a reflector (210, 510, 710, 910, 1106,) formed on the molded structure and having a plurality of reflective surfaces (212, 512, 712, 912) formed thereon to reflect optical signals from ends of the plurality of optical fibers, respectively, or reflect incident optical signals towards the ends of the plurality of optical fibers, respectively; and an alignment structure disposed to be aligned to a corresponding alignment structure of a socket to which the optical ferrule is removably coupled by sliding or moving the optical ferrule in or opposite to an insertion direction; characterised in that the substrate is formed of a diced wafer, and the molded structure is formed on the substrate, and formed of a light curable material.
A device for inspecting bulk material, in particular pellets, for contaminants, comprising a bulk material inlet, through which the bulk material is fed to the device in a substantially planar bulk material flow, wherein the device comprises two opposing tubular tunnel portions (10, 20), which are arranged such that the bulk material flow falls through between the tunnel portions (10, 12), wherein the longitudinal axes of the tunnel portions (10, 12) extend perpendicularly to the falling direction of the bulk material flow and wherein at least one of the tunnel portions (10, 12) comprises lamps for indirectly illuminating the bulk material flow, wherein the indirect illumination is such that no optical radiation arrives directly at the bulk material flow from the lamps, and such that no optical radiation arrives directly at the optical detector from the lamps, wherein at least one optical detector is provided, which is directed through at least one of the tunnel portions (10, 12) at the bulk material flow, and wherein an evaluation apparatus is provided, which identifies contaminants in the inspected bulk material based on the measurement data of the at least one optical detector.
A sub-assembly for connecting a wind turbine blade to a hub, the sub-assembly comprising a tubular support member, wherein one end of the tubular support member is arranged to be connected to the hub; the sub-assembly being characterised by at least two spaced bulkheads extending across the tubular support member and which are arranged to be supported by the tubular support member, wherein each bulkhead has an opening for receiving a spar member of the wind turbine blade such that, in use, a portion of the spar member is supported within the tubular support member by the bulkheads such that the spar extends from the tubular support member.
An apparatus for handling take-up rolls in a printing system for taking-up printed sheet, comprising: a holder device for holding a take-up roll in a take-up position (P t), wherein the take-up roll is rotatable about a longitudinal axis thereof in the take-up position (P t) for taking-up printed sheet output from the printing system, wherein the holder device comprises a circumferential surface whereupon a holding portion (6, 6', 6") is provided for supporting an outer surface of the take-up roll, wherein the holder device is movable to release or to discharge the take-up roll from the holder device when the take-up roll is full or when a print job is finished, and characterized in that a movement of the holder device to release or discharge a full take-up roll also operates to load a new take-up roll onto the holder device and into the take-up position (P t), wherein the holder device is rotatable to release or discharge the take-up roll from the holder device when the take-up roll is full or when a print job is finished, and wherein a rotation of the holder device to release or discharge a full take-up roll also operates to load a new take-up roll onto the holder device into the take-up position (P t). a holder device for holding a take-up roll in a take-up position (P t), wherein the take-up roll is rotatable about a longitudinal axis thereof in the take-up position (P t) for taking-up printed sheet output from the printing system, wherein the holder device comprises a circumferential surface whereupon a holding portion (6, 6', 6") is provided for supporting an outer surface of the take-up roll, wherein the holder device is movable to release or to discharge the take-up roll from the holder device when the take-up roll is full or when a print job is finished, and characterized in that a movement of the holder device to release or discharge a full take-up roll also operates to load a new take-up roll onto the holder device and into the take-up position (P t), wherein the holder device is rotatable to release or discharge the take-up roll from the holder device when the take-up roll is full or when a print job is finished, and wherein a rotation of the holder device to release or discharge a full take-up roll also operates to load a new take-up roll onto the holder device into the take-up position (P t).
A 4-layered brazing sheet material consisting of an aluminium core alloy layer provided with a first brazing clad layer material on one face of said aluminium core layer and a second brazing clad layer material on the other face of said aluminium core material, and an inter-layer on one side of the core layer positioned between the aluminium core alloy layer and the first brazing clad layer material, wherein the core layer is made from an 3xxx-series aluminium alloy having, in wt.%, up to 0.4% Si, up to 0.5% Fe, 0.4% to 0.75% Cu, 0.6% to 1.1% Mn, up to 0.07% Mg, up to 0.2% Cr, up to 0.25% Zr, up to 0.2% Ti, up to 0.15% Zn, balance aluminium and impurities, wherein the first brazing layer and the second brazing layer are made from an 4xxx-series aluminium alloy having 6% to 14% Si and up to 2% Mg, balance aluminium and impurities, and wherein the inter-layer is made from a 3xxx-series alloy, consisting of, in wt.%, 0.15 to 0.55% Si, 0.2% to 0.65% Fe, up to 0.15% Cu, 1.0% to 1.5% Mn, up to 0.1 % Zn, up to 0.04% Mg, up to 0.2% Cr, up to 0.2% Zr, up to 0.06% Ti, balance aluminium and impurities.
A monomeric calicheamicin derivative/ anti-CD22 antibody conjugate having the formula, Pr (-X-S-S-W) m wherein: Pr is an anti-CD22 antibody; X is a hydrolysable linker that comprises a product of any reactive group that can react with an antibody; W is a calicheamicin radical; m is the average loading for a purified conjugation product such that the calicheamicin constitutes 4-10% of the conjugate by weight; and (-X-S-S-W) m is a calicheamicin derivative, wherein the antibody molecule comprises a heavy chain variable domain comprising (a) SEQ ID NO: 1 for CDR-H1, (b) the sequence GINPGNNYATYRRKFQG of gH7 in Figure 6 or SEQ ID NO:2 or SEQ ID NO: 13 or SEQ ID NO:15 or SEQ ID NO: 16 for CDR-H2, and (c) SEQ ID NO:3 for CDR-H3; and a light chain variable domain comprising (d) SEQ ID NO:4 for CDR-L1, (e) SEQ ID NO:5 for CDR-L2, and (f) SEQ ID NO:6 for CDR-L3. (a) SEQ ID NO: 1 for CDR-H1, (b) the sequence GINPGNNYATYRRKFQG of gH7 in Figure 6 or SEQ ID NO:2 or SEQ ID NO: 13 or SEQ ID NO:15 or SEQ ID NO: 16 for CDR-H2, and (c) SEQ ID NO:3 for CDR-H3; and a light chain variable domain comprising (d) SEQ ID NO:4 for CDR-L1, (e) SEQ ID NO:5 for CDR-L2, and (f) SEQ ID NO:6 for CDR-L3.