mhurhangee/ep-ind-claims huggingface dataset:
A method for docking a boarding bridge with an aircraft, wherein the method comprises: planning a path from a position at which a bridgehead is located when the boarding bridge is at a parking position to a pre-docking position which is 1 to 2 meters away from a cabin door of the aircraft, which comprises: acquiring a preset anti-collision line of a wing;acquiring a pre-docking position and a position at which the bridgehead is located when the boarding bridge is at the parking position, and generating a path for connecting the two positions; simulating the process of the boarding bridge moving to the pre-docking position along the path, and adjusting at least a part of the path in front of an engine in a direction radially away from the engine in case that an interference is formed between the anti-collision line of the wing and an outer contour of the boarding bridge during the simulating, and then simulating again unless no more interference between the anti-collision line of the wing and the outer contour of the boarding bridge be formed; driving the boarding bridge to move the bridgehead towards the pre-docking position along the path until the bridgehead moves to a position where a distance between the bridgehead and the pre-docking position is less than 2 meters; acquiring an aircraft image of the aircraft, obtaining a spatial position of the cabin door according to the aircraft image; moving the boarding bridge according to the spatial position to enable the bridgehead to dock with the cabin door. planning a path from a position at which a bridgehead is located when the boarding bridge is at a parking position to a pre-docking position which is 1 to 2 meters away from a cabin door of the aircraft, which comprises: acquiring a preset anti-collision line of a wing;acquiring a pre-docking position and a position at which the bridgehead is located when the boarding bridge is at the parking position, and generating a path for connecting the two positions; simulating the process of the boarding bridge moving to the pre-docking position along the path, and adjusting at least a part of the path in front of an engine in a direction radially away from the engine in case that an interference is formed between the anti-collision line of the wing and an outer contour of the boarding bridge during the simulating, and then simulating again unless no more interference between the anti-collision line of the wing and the outer contour of the boarding bridge be formed; driving the boarding bridge to move the bridgehead towards the pre-docking position along the path until the bridgehead moves to a position where a distance between the bridgehead and the pre-docking position is less than 2 meters; acquiring an aircraft image of the aircraft, obtaining a spatial position of the cabin door according to the aircraft image; moving the boarding bridge according to the spatial position to enable the bridgehead to dock with the cabin door.
Constructive arrangement for the opening of a beverage can comprising: an end wall surrounded by an adjacent peripheral edge of the can and incorporating a vent panel and, spaced therefrom, a pouring panel, which panels are spaced from each other and breakable for the formation of a vent opening and a pouring opening, respectively, wherein said panels (11,12) have the contours thereof totally defined by a rupture line (11a, 12a), it being also provided an actuation tab, comprising: an extracting end portion externally affixed to the vent panel; a punching end portion, incorporating, in a single piece and through a hinge region, a tongue portion cut out from the actuation tab and defining the portion of the latter externally affixed to the pouring panel, said tongue portion being provided with a lower end tooth, to be pressed against a confronting spot region of the rupture line of the pouring panel; and a grip portion, having a hinge end affixed to the extracting end portion and a free end, the grip portion being manually and upwardly displaceable, around its hinge end, from a retracted inoperative position, to an operative position, spaced from the end wall of the can, and in which it is actuated to separate, from said can, the vent panel, punching the spot region of the rupture line of the pouring panel and, subsequently, detach the latter from the end wall.
An igniter system for igniting an energetic material, the igniter system comprising: a housing, having a bore; an igniter located inside the bore; a ground wire directly connected to the igniter; a signal wire directly connected to the igniter; and another housing that connects to the housing, and a seal element that seals one end of the another housing while the other end of the another housing directly attaches to the housing, wherein the ground wire and the signal wire form an electrical circuit with the igniter for igniting the energetic material, and wherein the signal wire and the ground wire pass from the housing, through an entirety of the another housing. a housing, having a bore; an igniter located inside the bore; a ground wire directly connected to the igniter; a signal wire directly connected to the igniter; and another housing that connects to the housing, and a seal element that seals one end of the another housing while the other end of the another housing directly attaches to the housing, wherein the ground wire and the signal wire form an electrical circuit with the igniter for igniting the energetic material, and wherein the signal wire and the ground wire pass from the housing, through an entirety of the another housing.
A medical data transmission system including: - a dongle configured to wirelessly receive medical data via a signal, - an externally perceptible indicator included in the dongle configured to provide an indication of signal reception and an indication of the strength of signal reception, and - a device configured to generate health data, the device being capable of generating the signal, characterized in that the dongle includes a processor configured to execute instructions to effect automatic data transfer upon detection of a signal of sufficient strength for data transfer. - a dongle configured to wirelessly receive medical data via a signal, - an externally perceptible indicator included in the dongle configured to provide an indication of signal reception and an indication of the strength of signal reception, and - a device configured to generate health data, the device being capable of generating the signal,
Composition for the therapeutic use of delivering an agent through a targeted biological membrane, characterised in that the composition applied to the membrane comprises a) one or more phospholipid selected from the group consisting of long-chain phospholipids, short-chain lipids and mixtures thereof; b) a safe and effective amount of an imaging agent having two or more imaging properties; c) a fusogenic protein or polypeptide derived from prosaposin; and d) a pharmaceutically acceptable carrier, wherein the concentration of the fusogenic protein or polypeptide is of a sufficient amount to deliver the agent through the membrane, and wherein the composition forms a liposome capable of fusing with the targeted biological membrane. a) one or more phospholipid selected from the group consisting of long-chain phospholipids, short-chain lipids and mixtures thereof; b) a safe and effective amount of an imaging agent having two or more imaging properties; c) a fusogenic protein or polypeptide derived from prosaposin; and d) a pharmaceutically acceptable carrier,
Cooking hob with at least one cooking hob apparatus with at least one heat sink provided for cooling at least one structural unit, with a fan unit provided in order to provide cooling air to the heat sink in at least one operating mode, and with a duct unit which, perpendicular to a longitudinal direction of the duct unit, has an at least substantially closed shape and is provided to guide the cooling air emanating from the fan unit at least in the direction of the heat sink, wherein the duct unit has at least one first duct element and at least one second duct element that differs from the first duct element, wherein the second duct element is formed by a functional component that, in addition to a function of delimiting the duct, has and/or executes at least one further function, wherein the cooking hob apparatus has at least one circuit board that at least substantially embodies the second duct element, and wherein in at least one assembled state the second duct element embodies a full duct at least in sections together with the first duct element.
Filter panel intended for a drum filter, said filter panel having multiple filter holes, wherein each filter hole has a length and a width, characterized by that at least a substantial amount of the filter holes has a length which is at least 1.5 times the width, wherein the filter panel has a free surface area which is at least 85%, on a side of the filter panel intended to be in contact with a filter cloth of the drum filter, wherein the filter panel comprises ribs with an increasing thickness from the side of the filter panel intended to be in contact with a filter cloth of the drum filter to the other side of the filter panel, wherein the ribs have a thickness of maximum 2.0 mm on a side of the filter panel intended to be in contact with a filter cloth of the drum filter, wherein at least 90% of the filter holes have a substantially rectangular shape, wherein substantially all of the filter holes have a length in the range of 40 - 80 mm, and wherein the filter panels are arranged so that the length and thus elongation of the filter holes are arranged in the direction of the rotation of the filter panels.
A process for preparing a catalyst, wherein said process comprises: (i) preparing a mixture of one or more aromatic alcohol monomers and/or non-aromatic monomers, solvent, polymerization catalyst, crosslinking agent, suspension stabilizing agent and one or more metal salts, under conditions sufficient to produce polymeric beads doped with one or more metals or salts thereof; (ii) carbonizing, activating and then reducing the polymeric beads produced in step (i) to produce metal nanoparticles-doped porous carbon beads; (iii) subjecting the metal nanoparticles-doped porous carbon beads produced in step (ii) to chemical vapour deposition in the presence of a carbon source to produce metal nanoparticles-doped porous carbon beads comprising carbon nanofibers; and (iv) doping the metal nanoparticles-doped porous carbon beads comprising carbon nanofibers produced in step (iii) with an oxidant by mixing the beads with an aqueous solution comprising the oxidant at a temperature in the range of from 40 to 60 °C for a period of from 4 to 12 hours, wherein after mixing, the catalyst is filtered and dried. (i) preparing a mixture of one or more aromatic alcohol monomers and/or non-aromatic monomers, solvent, polymerization catalyst, crosslinking agent, suspension stabilizing agent and one or more metal salts, under conditions sufficient to produce polymeric beads doped with one or more metals or salts thereof; (ii) carbonizing, activating and then reducing the polymeric beads produced in step (i) to produce metal nanoparticles-doped porous carbon beads; (iii) subjecting the metal nanoparticles-doped porous carbon beads produced in step (ii) to chemical vapour deposition in the presence of a carbon source to produce metal nanoparticles-doped porous carbon beads comprising carbon nanofibers; and (iv) doping the metal nanoparticles-doped porous carbon beads comprising carbon nanofibers produced in step (iii) with an oxidant by mixing the beads with an aqueous solution comprising the oxidant at a temperature in the range of from 40 to 60 °C for a period of from 4 to 12 hours, wherein after mixing, the catalyst is filtered and dried.
An air cleaner, comprising: a case comprising an air inlet; an air outlet formed at an upper part of the case; a filter configured to filter out foreign substances contained in air suctioned through the air inlet; a discharge flow passage in the case through which air having passed through the air inlet flows to the air outlet; a blower fan disposed on the discharge flow passage and generating an air flow from the air inlet to the air outlet; a first tube disposed at a downstream side of the filter on the discharge flow passage and having a first hole on the first tube opened toward the filter; a second tube disposed on a downstream side of the filter and having a second hole on the second tube opened toward the blower fan; and a pressure sensor connected to the first tube and the second tube, the pressure sensor configured to measure air pressure in the first tube and the second tube, respectively, wherein the first tube and the second tube are disposed between the filter and the blower fan. a case comprising an air inlet; an air outlet formed at an upper part of the case; a filter configured to filter out foreign substances contained in air suctioned through the air inlet; a discharge flow passage in the case through which air having passed through the air inlet flows to the air outlet; a blower fan disposed on the discharge flow passage and generating an air flow from the air inlet to the air outlet; a first tube disposed at a downstream side of the filter on the discharge flow passage and having a first hole on the first tube opened toward the filter; a second tube disposed on a downstream side of the filter and having a second hole on the second tube opened toward the blower fan; and a pressure sensor connected to the first tube and the second tube, the pressure sensor configured to measure air pressure in the first tube and the second tube, respectively, wherein the first tube and the second tube are disposed between the filter and the blower fan.
Electrosurgical device, comprising a radiofrequency generator, which generates a radiofrequency output signal (U out; f 0) for treating, in particular for cutting or coagulating, biological tissue, wherein the radiofrequency generator is designed in such a way that the output signal (U out) has a predetermined signal frequency (f 0) and is generated in a continuous manner, in a manner modulated by a modulation frequency (f m) or with bursts having a predetermined pulse/pause ratio of signal (t on) to pause (t off) and a predetermined clock frequency (f m), characterized in that provision is made for a modulation generator (20, 20'), which generates a low frequency modulation signal, which is fed in such a way to the RF generator for controlling the output signal (U out; f 0) that the signal frequency and/or the modulation frequency and/or the clock frequency are modulated by the low frequency modulation signal, such that the spectra thereof are broadened.
A method for recognizing a file as malicious, comprising: intercepting the file for analysis received at a computing device of a user; opening the file for analysis in an environment for safe execution; generating a log that stores a portion of information occurring during the opening the file for analysis in the environment for safe execution; analyzing the log to recognize a first set of security related events from the portion of information; forming a behavior template based on the first set of security related events, wherein the behavior template is a compact variant of the representation of the log; calculating a coefficient of danger of the file for analysis based on events from the behavior template; tracking a second set of security related events when the file for analysis is opened on the computing device; comparing the second set of security related events and the first set of security related events to identify a discrepancy; increasing the coefficient of danger for each event found in the second set of security related events that is not found in the first set of security related events; and recognizing the file for analysis as malicious when the coefficient of danger exceeds a threshold value. intercepting the file for analysis received at a computing device of a user; opening the file for analysis in an environment for safe execution; generating a log that stores a portion of information occurring during the opening the file for analysis in the environment for safe execution; analyzing the log to recognize a first set of security related events from the portion of information; forming a behavior template based on the first set of security related events, wherein the behavior template is a compact variant of the representation of the log; calculating a coefficient of danger of the file for analysis based on events from the behavior template; tracking a second set of security related events when the file for analysis is opened on the computing device; comparing the second set of security related events and the first set of security related events to identify a discrepancy; increasing the coefficient of danger for each event found in the second set of security related events that is not found in the first set of security related events; and recognizing the file for analysis as malicious when the coefficient of danger exceeds a threshold value.
An anti-CTLA4 antibody capable of binding human CTLA4 comprising: a heavy chain comprising the amino acid sequence set forth in SEQ ID NO: 64, a light chain comprising the amino acid sequence set forth in SEQ ID NO: 71, and an IgG1 Fc region comprising the sequence set forth in SEQ ID NO: 4.
A neural prosthesis comprising: an electrode array comprising a stimulating electrode and a bipolar return electrode; and a monopolar return electrode; at least one current source (808, 810) providing a current to the stimulating electrode; a first electrical return path having a first current sink associated with the bipolar return electrode; a second electrical return path having a second current sink associated with the monopolar return electrode; and a controller wherein the stimulating electrode is adapted to provide a stimulating current to the tissue of a recipient; and wherein the controller is adapted to controllably divide a total return current between a first current in the first current sink and a second current in the second current sink, wherein the controller is adapted to set a ratio of the first return current to the second return current. an electrode array comprising a stimulating electrode and a bipolar return electrode; and a monopolar return electrode; at least one current source (808, 810) providing a current to the stimulating electrode; a first electrical return path having a first current sink associated with the bipolar return electrode; a second electrical return path having a second current sink associated with the monopolar return electrode; and a controller wherein the stimulating electrode is adapted to provide a stimulating current to the tissue of a recipient; and wherein the controller is adapted to controllably divide a total return current between a first current in the first current sink and a second current in the second current sink, wherein the controller is adapted to set a ratio of the first return current to the second return current.
An injection unit, comprising: a cylinder to which a molding material is supplied; a discharging member which is provided to freely move forward and backward in the cylinder and discharges the molding material outside the cylinder by a forward movement of the discharging member; a fixing member to which a rear end section of the cylinder is attached; a movable member which is provided to freely move forward and backward behind the fixing member and is connected to the discharging member; a movement conversion mechanism which converts rotation motion of a motor into linear motion of the movable member; and a load cell; characterized in that the load cell is attached to both the fixing member and a portion of the movement conversion mechanism, and the load cell is disposed on the front side of the fixing member which front side is in the forward movement direction of the discharging member. a cylinder to which a molding material is supplied; a discharging member which is provided to freely move forward and backward in the cylinder and discharges the molding material outside the cylinder by a forward movement of the discharging member; a fixing member to which a rear end section of the cylinder is attached; a movable member which is provided to freely move forward and backward behind the fixing member and is connected to the discharging member; a movement conversion mechanism which converts rotation motion of a motor into linear motion of the movable member; and a load cell; characterized in that the load cell is attached to both the fixing member and a portion of the movement conversion mechanism, and the load cell is disposed on the front side of the fixing member which front side is in the forward movement direction of the discharging member.
A method of producing superfine particles of a Prussian blue-type metal complex, comprising: mixing an aqueous solution that comprises an anionic cyano-metal-complex having a metal atom M 1 as a central metal and an aqueous solution that comprises a metal cation of a metal atom M 2, to precipitate crystals of a Prussian blue-type metal complex comprising the metal atom M 1 and the metal atom M 2; then mixing the crystals of the Prussian blue-type metal complex and a solution of a ligand L dissolved into a solvent, to obtain a dispersion liquid containing superfine particles of the Prussian blue-type metal complex; and separating the Prussian blue-type metal complex from the dispersion liquid for forming the superfine particles in a nanometer size, wherein the ligand L is selected from single or plural kinds of ligands, which have pyridyl or amino groups, exhibiting the following formulae to: wherein, in the formula, R 1 and R 2 each independently represent a hydrogen atom or an alkyl group having 8 or more carbon atoms, and either of these groups may be introduced with an unsaturated bond; wherein, in the formula, R 3 represents an alkyl group having 8 or more carbon atoms, and this group may be introduced with an unsaturated bond; and wherein, in the formula, R 4 represents an alkyl group having 6 or more carbon atoms, R 5 represents an alkyl group, and either of these groups may be introduced with an unsaturated bond. mixing an aqueous solution that comprises an anionic cyano-metal-complex having a metal atom M 1 as a central metal and an aqueous solution that comprises a metal cation of a metal atom M 2, to precipitate crystals of a Prussian blue-type metal complex comprising the metal atom M 1 and the metal atom M 2; then mixing the crystals of the Prussian blue-type metal complex and a solution of a ligand L dissolved into a solvent, to obtain a dispersion liquid containing superfine particles of the Prussian blue-type metal complex; and separating the Prussian blue-type metal complex from the dispersion liquid for forming the superfine particles in a nanometer size, wherein the ligand L is selected from single or plural kinds of ligands, which have pyridyl or amino groups, exhibiting the following formulae to: wherein, in the formula, R 1 and R 2 each independently represent a hydrogen atom or an alkyl group having 8 or more carbon atoms, and either of these groups may be introduced with an unsaturated bond; wherein, in the formula, R 3 represents an alkyl group having 8 or more carbon atoms, and this group may be introduced with an unsaturated bond; and wherein, in the formula, R 4 represents an alkyl group having 6 or more carbon atoms, R 5 represents an alkyl group, and either of these groups may be introduced with an unsaturated bond.