mhurhangee/ep-ind-claims huggingface dataset:
Air intake system for an aircraft, the air intake system comprising: an air duct suitable for providing airflow to the inside of an aircraft, preferably to an auxiliary power unit, an inlet arranged at one end of the air duct, a skin surrounding the inlet, a plurality of slots arranged on the skin, a driving means, a flap door connected to the driving means, and a plurality of fins connected to the driving means, the plurality of fins being configured to create vortex in the boundary layer of the surrounding airflow when they are protruding through the slots towards the outside of the aircraft, wherein the driving means is configured for moving the flap door between at least two positions, said positions being a closed position wherein the flap door closes the inlet, and an opened position wherein the flap door is driven away from said closed position, and wherein the driving means is also configured for moving the plurality of fins between an operative position, wherein the plurality of fins protrudes through the slots, and a non-operative position, wherein the plurality of fins are completely retracted under the skin, and wherein the plurality of fins caps the plurality of slots in such a way that that skin provides structural aerodynamic continuity. an air duct suitable for providing airflow to the inside of an aircraft, preferably to an auxiliary power unit, an inlet arranged at one end of the air duct, a skin surrounding the inlet, a plurality of slots arranged on the skin, a driving means, a flap door connected to the driving means, and a plurality of fins connected to the driving means, the plurality of fins being configured to create vortex in the boundary layer of the surrounding airflow when they are protruding through the slots towards the outside of the aircraft,
A video recording apparatus that is hand-held or mountable on a helmet, and/or is adapted for use during a sporting activity, which video recording apparatus comprises a marker comprising a receiver for receiving data from a geographical position monitoring device, a data buffer, a processor and video correlation software, the video recording apparatus adapted so that upon receipt of said data, said video recording apparatus uses said data to mark currently recording video data with said geographical position; chararacterized in that the video recording apparatus is further adapted to determine a sampling rate by location differentiation and change rate, whereby in use said sampling rate is increased in response to and in proportion to an increase in said location differentiation and change rate, and to place said data into said video data at said sampling rate.
Method of transmitting a data block (DB4..DB6) of a type from a transmitting device to a receiving device, wherein the transmitting device is receiving at least two different types of positive/negative acknowledgements being packet downlink ACK/NACK and piggy-backed ACK/NACK for said data block (DB4..DB6) of said type from said receiving device and wherein the reaction to the positive/negative acknowledgements after reception/decoding of the transmitting device depends on the type of said received positive/negative acknowledgement being packet downlink ACK/NACK and piggy-backed ACK/NACK.
A projection control apparatus that controls projection using projection devices that project optical images onto a projection plane, the apparatus comprising: obtaining means configured to obtain a projected area of each of the projection devices on the basis of an image obtained by capturing the projection plane; selecting means configured to select a reference projection device from among the projection devices based on a user input; setting means configured to set any one of a plurality of adjustment processes including a first adjustment process in which an amount of geometric correction is determined so that a projected area of another projection device different from the reference projection device is caused to correspond with a projected area of the reference projection device, and control means configured to execute an adjustment process set by the setting means thereby controlling an amount of geometric correction of each of the projection devices, wherein in a case that the first adjustment process is set by the setting means, the control means is configured to cancel geometric correction applied in the other projection device without cancelling geometric correction applied in the reference projection device, to cause the reference projection device to project a first test image and the other projection device to project a second test image for confirming, by the user, the reference projector selection, and then to start the first adjustment process by controlling an amount of geometric correction for a projected area of the other projection device. obtaining means configured to obtain a projected area of each of the projection devices on the basis of an image obtained by capturing the projection plane; selecting means configured to select a reference projection device from among the projection devices based on a user input; setting means configured to set any one of a plurality of adjustment processes including a first adjustment process in which an amount of geometric correction is determined so that a projected area of another projection device different from the reference projection device is caused to correspond with a projected area of the reference projection device, and control means configured to execute an adjustment process set by the setting means thereby controlling an amount of geometric correction of each of the projection devices, wherein in a case that the first adjustment process is set by the setting means, the control means is configured to cancel geometric correction applied in the other projection device without cancelling geometric correction applied in the reference projection device, to cause the reference projection device to project a first test image and the other projection device to project a second test image for confirming, by the user, the reference projector selection, and then to start the first adjustment process by controlling an amount of geometric correction for a projected area of the other projection device.
A varnish which is suitable for formulating intaglio inks, comprising a bio-renewable iso-alkane vegetable oil-based solvent, oxidatively curable materials, and high acid value resins having an acid number of 100-160 mgKOH/g, wherein the varnish is mineral oil-free; wherein the oxidatively curable materials comprise an epoxy ester and/or a urethane modified alkyd.
A system comprising: a distributed CMTS comprising a root CMTS node and a plurality of branch CMTS nodes (121,.., 129) for distributing downstream signals from the root CMTS node to a plurality of CMs (131,.., 139) and for relaying upstream signals from the plurality of CMs (131,.., 139) to the root CMTS node; each branch CMTS node (121,.., 129) configured to receive upstream signals from a corresponding set of CMs by using a set of physical upstream channels, wherein a first CM is configured to transmit a first upstream signal on a first physical upstream channel of a first branch CMTS node by using a first transmission opportunity that is identified by a first service flow identifier, wherein a second CM is configured to transmit a second upstream signal on a second physical upstream channel of a second branch CMTS node by using a second transmission opportunity that is identified by a second service flow identifier, characterized by the first and second service flow identifiers being identical. a distributed CMTS comprising a root CMTS node and a plurality of branch CMTS nodes (121,.., 129) for distributing downstream signals from the root CMTS node to a plurality of CMs (131,.., 139) and for relaying upstream signals from the plurality of CMs (131,.., 139) to the root CMTS node; each branch CMTS node (121,.., 129) configured to receive upstream signals from a corresponding set of CMs by using a set of physical upstream channels, wherein a first CM is configured to transmit a first upstream signal on a first physical upstream channel of a first branch CMTS node by using a first transmission opportunity that is identified by a first service flow identifier, wherein a second CM is configured to transmit a second upstream signal on a second physical upstream channel of a second branch CMTS node by using a second transmission opportunity that is identified by a second service flow identifier, characterized by the first and second service flow identifiers being identical.
A scintillator array comprising a structure including a plurality of stacks layered onto each other, wherein each of the stacks has in sequence: a light reflector including ceramics or single-crystal silicon; a first film consisting of enriched boron carbide including an enriched boron-10 isotope and configured to react with a neutron incident along a direction intersecting a lamination direction of the stacks and thus emit a radiation ray; a second film consisting of a white ceramics and configured to reflect light; and a scintillator configured to emit light in response to the radiation ray. a structure including a plurality of stacks layered onto each other, wherein each of the stacks has in sequence: a light reflector including ceramics or single-crystal silicon; a first film consisting of enriched boron carbide including an enriched boron-10 isotope and configured to react with a neutron incident along a direction intersecting a lamination direction of the stacks and thus emit a radiation ray; a second film consisting of a white ceramics and configured to reflect light; and a scintillator configured to emit light in response to the radiation ray. a light reflector including ceramics or single-crystal silicon; a first film consisting of enriched boron carbide including an enriched boron-10 isotope and configured to react with a neutron incident along a direction intersecting a lamination direction of the stacks and thus emit a radiation ray; a second film consisting of a white ceramics and configured to reflect light; and a scintillator configured to emit light in response to the radiation ray.
A pharmaceutical composition comprising a soluble neutral active human hyaluronidase polypeptide (sHASEGP) and an anti-cancer agent for use in treating a tumor, wherein: the anti-cancer agent is an antibody or a gene therapy vector; and the hyaluronidase polypeptide consists of a sequence of amino acids that has at least 98% amino acid sequence identity with the sequence of amino acids set forth as amino acids 1-448 of SEQ ID NO:4, which corresponds to amino acids 36-483 of SEQ ID NO: 1, wherein: the polypeptide contains at least one sugar moiety that is covalently attached to an asparagine residue of the polypeptide; and the polypeptide is catalytically active. the anti-cancer agent is an antibody or a gene therapy vector; and the hyaluronidase polypeptide consists of a sequence of amino acids that has at least 98% amino acid sequence identity with the sequence of amino acids set forth as amino acids 1-448 of SEQ ID NO:4, which corresponds to amino acids 36-483 of SEQ ID NO: 1, wherein: the polypeptide contains at least one sugar moiety that is covalently attached to an asparagine residue of the polypeptide; and the polypeptide is catalytically active. the polypeptide contains at least one sugar moiety that is covalently attached to an asparagine residue of the polypeptide; and the polypeptide is catalytically active.
A brush for the dosed application of a cosmetic or pharmaceutical liquid, comprising a covering of a number of bristles disposed so as to extend at least substantially parallel to one another and to the bristle carrier longitudinal axis L, which are grouped around a covering center, wherein the bristles are molded onto a bristle carrier, wherein the covering has an outer covering region, which encloses the covering center in a circumferential direction and in which the bristle density is higher than in the inner covering region enclosed by the outer covering region and/or whose bristles are finer than the bristles of the inner covering region, wherein the inner covering region has limiting bristles delimiting in the center of the covering a substantially bristle-free volume of space forming a drop space in which a dose of the liquid to be applied can collect, which is so large that it triggers the abrupt discharge of the predominant part of the liquid to be applied in the form of a drop when the surface to be treated is touched; in this case, the limiting bristles protrude beyond the distal ends of all other bristles of the bristle covering.
An integrated circuit comprising circuitry which, in operation, controls a process of a mobile terminal for performing a random access procedure in a mobile communication system, the process comprising: transmitting (901, 1002) a random access preamble to a base station, receiving (902, 1003) a random access response message from the base station in response to transmitting the random access preamble, characterized in that the random access response message comprises a grant of resources to the mobile terminal for a scheduled uplink transmission, and a field indicating how many times a same transport block is to be repeatedly transmitted from the mobile terminal on the granted resources for the scheduled uplink transmission in consecutive subframes without waiting for a Hybrid Automatic-Repeat Request, HARQ feedback from the base station. transmitting (901, 1002) a random access preamble to a base station, receiving (902, 1003) a random access response message from the base station in response to transmitting the random access preamble, characterized in that the random access response message comprises a grant of resources to the mobile terminal for a scheduled uplink transmission, and a field indicating how many times a same transport block is to be repeatedly transmitted from the mobile terminal on the granted resources for the scheduled uplink transmission in consecutive subframes without waiting for a Hybrid Automatic-Repeat Request, HARQ feedback from the base station.
A control mechanism for an endoscopic device, comprising: a tensioning element adapted to extend through a flexible elongate shaft of an endoscopic device; a spool (P 1) having the tensioning element coupled thereto, the spool (P 1) being movable between a first position in which the spool (P 1) provides slack to the tensioning element, and a second position in which the spool (P 1) engages the tensioning element such that movement of the spool (P 1) is effective to tension the tensioning element; and a driver disposed adjacent to the spool (P 1) and adapted to move the spool between the first and second positions; characterized in that the spool (P 1) includes opposed plates (40, 50) that are spaced apart from one another in the first position, and that move together to engage the tensioning element in the second position, and wherein the driver comprises a wedge slidably disposed relative to the opposed plates (40, 50), wherein the wedge is slidably disposed between a pair of spreader plates (60, 70) movably coupled to one another, and wherein sliding movement of the wedge is effective to move the pair of spreader plates (60, 70) toward and away from one another to thereby move the opposed plates (40, 50) between the first and second positions. a tensioning element adapted to extend through a flexible elongate shaft of an endoscopic device; a spool (P 1) having the tensioning element coupled thereto, the spool (P 1) being movable between a first position in which the spool (P 1) provides slack to the tensioning element, and a second position in which the spool (P 1) engages the tensioning element such that movement of the spool (P 1) is effective to tension the tensioning element; and a driver disposed adjacent to the spool (P 1) and adapted to move the spool between the first and second positions; characterized in that the spool (P 1) includes opposed plates (40, 50) that are spaced apart from one another in the first position, and that move together to engage the tensioning element in the second position, and wherein the driver comprises a wedge slidably disposed relative to the opposed plates (40, 50), wherein the wedge is slidably disposed between a pair of spreader plates (60, 70) movably coupled to one another, and wherein sliding movement of the wedge is effective to move the pair of spreader plates (60, 70) toward and away from one another to thereby move the opposed plates (40, 50) between the first and second positions.
A communication system for wireless data transmission between an implantable medical device (IMD, 40) and an external device comprising a communication unit and a processor, said system comprising said IMD and said external device, wherein the IMD is configured to monitor a bodily parameter of a patient and/or is configured to deliver a therapy signal to the patient, wherein the IMD comprises a transceiver module configured to exchange the data with the communication unit of the external device in an uplink direction from the transceiver module to the communication unit and in a downlink direction from the communication unit to the transceiver module, wherein the processor of the external device is configured to determine the signal strength (C E) of at least one data packet received by the communication unit and sent by the transceiver module of the implanted IMD with a pre-determined initial data rate and to determine the noise level (I E) of the communication unit, wherein the processor is further configured to determine a highest possible uplink data rate value (d UL) for data transmission in the uplink direction and a highest possible downlink data rate value (d DL) for data transmission in the downlink direction based on the immediately previously determined signal strength of the at least one data packet received by the communication unit from the transceiver module and the current noise level of the communication unit.
Control unit (50a-50d) for a trailer coupling (10a-10d) for a towing vehicle, in particular a car, wherein the trailer coupling (10a-10d) has a coupling arm (13a-13d) for attaching a trailer or for holding a load carrier, wherein the control unit (50a-50d) has a reader for communication with an RFID transponder (39a-39d), mounted in particular on a coupling of the trailer or the load carrier, and in which at least one identification code is stored, and evaluation means for evaluation of the identification code or codes, characterised in that it, in particular the reader, is designed with the aid of the communication with the RFID transponder (39a-39d) mounted on the coupling, in particular the coupling seating, of the trailer, to generate position data representing the position of the coupling seating, and to control a positioning drive assembly with the aid of the position data, which is provided for positioning the coupling arm or arms (13a-13d) in a coupling seating of the trailer.
A mould for a wind turbine component, such as for a wind turbine blade, the component comprising a plurality of elements having different respective heat capacities and the mould comprising: an inner mould layer defining a mould surface for supporting the plurality of elements; heating means disposed beneath the mould surface; and a heat distribution layer adjacent to the heating means; wherein the mould has one or more first regions configured to support elements of the component having relatively high heat capacity, one or more second regions configured to support elements of the component having relatively low heat capacity, and one or more transition regions defined between the first and second regions (34, 36); and wherein the heat distribution layer in one or more transition regions of the mould is configured to enhance heat transfer within the distribution layer to one or more first regions of the mould. an inner mould layer defining a mould surface for supporting the plurality of elements; heating means disposed beneath the mould surface; and a heat distribution layer adjacent to the heating means; wherein the mould has one or more first regions configured to support elements of the component having relatively high heat capacity, one or more second regions configured to support elements of the component having relatively low heat capacity, and one or more transition regions defined between the first and second regions (34, 36); and wherein the heat distribution layer in one or more transition regions of the mould is configured to enhance heat transfer within the distribution layer to one or more first regions of the mould.
A method for producing a liquid crystal lens comprising the steps of: (S10-S14) providing a first transparent substrate and a second transparent substrate; placing a first photosetting resin on at least one of said first and second transparent substrates (110, 120) so as to surround a space thereon; dripping a prescribed amount of a liquid crystal material into the space surrounded by said first photosetting resin, bonding in a vacuum atmosphere the other of said transparent substrates (110, 120) onto said one transparent substrate on which said liquid crystal material has been dripped; curing said first photosetting resin to form a sealing agent after the step of bonding together said first and second transparent substrates (110, 120), said sealing agent sealing the liquid crystal material in a liquid crystal layer between the first and second transparent substrates (110, 120); and filling a second photosetting resin into a space surrounding and being in contact with the first photosetting resin or, in case that the latter has already been cured, with the sealing agent. (S10-S14) providing a first transparent substrate and a second transparent substrate; placing a first photosetting resin on at least one of said first and second transparent substrates (110, 120) so as to surround a space thereon; dripping a prescribed amount of a liquid crystal material into the space surrounded by said first photosetting resin, bonding in a vacuum atmosphere the other of said transparent substrates (110, 120) onto said one transparent substrate on which said liquid crystal material has been dripped; curing said first photosetting resin to form a sealing agent after the step of bonding together said first and second transparent substrates (110, 120), said sealing agent sealing the liquid crystal material in a liquid crystal layer between the first and second transparent substrates (110, 120); and filling a second photosetting resin into a space surrounding and being in contact with the first photosetting resin or, in case that the latter has already been cured, with the sealing agent.
A method for adjusting an amplitude quantization accuracy of a fill level radar for detecting a fill level (40, 45) of a container (20, 25), comprising the steps of: capturing amplitude values of an echo curve of the fill level radar by means of an analog-to-digital converter, ADC; determining a first amplitude value of a first echo having a highest amplitude or a highest local amplitude maximum (204, 208) of the echo curve; determining a second amplitude value of a second echo having a lowest local amplitude maximum of the echo curve; and setting an adjusted amplitude quantization accuracy as a function of a quotient of the first amplitude value and the second amplitude value, to determine the fill level (40, 45) of the container (20, 25) with the adjusted amplitude quantization accuracy. capturing amplitude values of an echo curve of the fill level radar by means of an analog-to-digital converter, ADC; determining a first amplitude value of a first echo having a highest amplitude or a highest local amplitude maximum (204, 208) of the echo curve; determining a second amplitude value of a second echo having a lowest local amplitude maximum of the echo curve; and setting an adjusted amplitude quantization accuracy as a function of a quotient of the first amplitude value and the second amplitude value, to determine the fill level (40, 45) of the container (20, 25) with the adjusted amplitude quantization accuracy.