mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving at a source serving node an identifier associated with a group of random access channel preambles for allocation by the source serving node, the group of random access channel preambles having been reserved at a serving node from available random access channel preambles for the serving node; allocating at least one from the group of random access channel preambles, in response to determining a handover from the source serving node to a target serving node; and transmitting a message to the target serving node, the message comprising the at least one from the group of random access channel preambles. receiving at a source serving node an identifier associated with a group of random access channel preambles for allocation by the source serving node, the group of random access channel preambles having been reserved at a serving node from available random access channel preambles for the serving node; allocating at least one from the group of random access channel preambles, in response to determining a handover from the source serving node to a target serving node; and transmitting a message to the target serving node, the message comprising the at least one from the group of random access channel preambles.
An aircraft having a pressure deck (150; 200), the pressure deck (150; 200) comprising: beams extending longitudinally along a fuselage of the aircraft; a web attached to an underside of the beams, the web including arches between adjacent beams to allow the pressure deck to be laterally flexible; a box structure between a middle pair of the beams and configured to transfer load forward to a rear spar of a wing of the aircraft and aft to an aft wheel well bulkhead of the aircraft; a first intercostal outboard from the box structure and configured to stabilize a first outboard pair of the beams; and a second intercostal outboard from the first intercostal and coupled between a second outboard pair of the beams via a swing link to allow the second intercostal to be laterally flexible. beams extending longitudinally along a fuselage of the aircraft; a web attached to an underside of the beams, the web including arches between adjacent beams to allow the pressure deck to be laterally flexible; a box structure between a middle pair of the beams and configured to transfer load forward to a rear spar of a wing of the aircraft and aft to an aft wheel well bulkhead of the aircraft; a first intercostal outboard from the box structure and configured to stabilize a first outboard pair of the beams; and a second intercostal outboard from the first intercostal and coupled between a second outboard pair of the beams via a swing link to allow the second intercostal to be laterally flexible.
A process for forming a graphene layer on the surface of a substrate comprising a silicon layer, the process comprising, in succession, steps of: - forming a silicon carbide film on a free surface of the silicon layer; and - gradually heating the substrate until sublimation of the silicon in at least the first lattice-arrays of atoms of the silicon carbide film, in order to form the graphene layer on the silicon carbide film, the process being characterized in that a silicon layer having a stepped free surface is used. - forming a silicon carbide film on a free surface of the silicon layer; and - gradually heating the substrate until sublimation of the silicon in at least the first lattice-arrays of atoms of the silicon carbide film, in order to form the graphene layer on the silicon carbide film,
A method for detecting addition of engine lubricant, comprising: determining whether a difference value between a lubricant quantity at a first timing and that at a second timing is greater than a first threshold value; delaying a period and determining whether the difference value between the lubricant quantity at a third timing and that at a fourth timing is greater than a second threshold value in response to the difference value between the lubricant quantity at the first timing and that at the second timing being greater than the first threshold value; and detecting the lubricant increment (390,400,410,420,430,440,450,460,470) in response to the difference value between the lubricant quantity at the third timing and that at the fourth timing being greater than the second threshold value, wherein the detecting the lubricant increment is done by: obtaining a maximum lubricant increment value; delaying a period and re-obtaining a lubricant increment value; re-obtaining (420,430,440,450,460) lubricant increment values (DT1,DT2,DT3,DT4) for multiple times at intervals equivalent to a duration of the period; and calculating an average increment value of the lubricant increments. determining whether a difference value between a lubricant quantity at a first timing and that at a second timing is greater than a first threshold value; delaying a period and determining whether the difference value between the lubricant quantity at a third timing and that at a fourth timing is greater than a second threshold value in response to the difference value between the lubricant quantity at the first timing and that at the second timing being greater than the first threshold value; and detecting the lubricant increment (390,400,410,420,430,440,450,460,470) in response to the difference value between the lubricant quantity at the third timing and that at the fourth timing being greater than the second threshold value, wherein the detecting the lubricant increment is done by: obtaining a maximum lubricant increment value; delaying a period and re-obtaining a lubricant increment value; re-obtaining (420,430,440,450,460) lubricant increment values (DT1,DT2,DT3,DT4) for multiple times at intervals equivalent to a duration of the period; and calculating an average increment value of the lubricant increments. obtaining a maximum lubricant increment value; delaying a period and re-obtaining a lubricant increment value; re-obtaining (420,430,440,450,460) lubricant increment values (DT1,DT2,DT3,DT4) for multiple times at intervals equivalent to a duration of the period; and calculating an average increment value of the lubricant increments.
A balancing device for firearms comprising at least one barrel (15, 16) having a muzzle and one stock, said device comprising a plurality of weight members and at least one front support and at least one rear support respectively mounted in a region adjacent to said muzzle and in the region of said stock; said front support and said rear support being configured to support one or more weight members; said weight members being modular and mutually analogous; each of said weight members being constituted by a flattened body provided with two holes adapted to receive respective fastening screws (8, 9) for said front support and for said rear support; said device being characterized in that each weight member comprises a protrusion formed on a rear side of said flattened body, where rear is understood to reference the side of the flattened body that faces the support when the weight member is fastened thereto; said protrusion being adapted to engage a recess formed on a front side of an adjacent weight member when multiple weight members are applied to a same support (2, 3); said protrusion of the first weight member, when applied to the front support, being adapted to engage a seat formed in said front support or, when applied to the rear support, being adapted to engage a seat formed in said rear support.
A refrigeration system comprising: a compressor (22A-22C); a first heat exchanger downstream of the compressor along a refrigerant flowpath; an expansion device (36A-36C) downstream of the first heat exchanger along the refrigerant flowpath; a second heat exchanger (38A-38C) downstream of the expansion device along the refrigerant flowpath and upstream of the compressor along the refrigerant flowpath; and a pulsation-canceling conduit assembly (100; 100') comprising: a first conduit leg; a second conduit leg (150; 28-1') extending from a junction with the first conduit leg; a first branch extending from the junction opposite the first conduit leg; and a first member adjustably axially displaceable along the first branch to define an effective volume of the first branch; characterised in that the first member is axially displaceable along the first branch via a screw mechanism including an external actuator handle so that rotation of the handle in first and second rotational directions respectively decreases and increases the effective volume. a compressor (22A-22C); a first heat exchanger downstream of the compressor along a refrigerant flowpath; an expansion device (36A-36C) downstream of the first heat exchanger along the refrigerant flowpath; a second heat exchanger (38A-38C) downstream of the expansion device along the refrigerant flowpath and upstream of the compressor along the refrigerant flowpath; and a pulsation-canceling conduit assembly (100; 100') comprising: a first conduit leg; a second conduit leg (150; 28-1') extending from a junction with the first conduit leg; a first branch extending from the junction opposite the first conduit leg; and a first member adjustably axially displaceable along the first branch to define an effective volume of the first branch; characterised in that the first member is axially displaceable along the first branch via a screw mechanism including an external actuator handle so that rotation of the handle in first and second rotational directions respectively decreases and increases the effective volume. a first conduit leg; a second conduit leg (150; 28-1') extending from a junction with the first conduit leg; a first branch extending from the junction opposite the first conduit leg; and a first member adjustably axially displaceable along the first branch to define an effective volume of the first branch; characterised in that the first member is axially displaceable along the first branch via a screw mechanism including an external actuator handle so that rotation of the handle in first and second rotational directions respectively decreases and increases the effective volume.
A device for inserting inserts into the dies of a rotary tablet press comprising a feed device, by means of which separated inserts are moved into alignment with a die of the rotary tablet press, which feed device comprises a core distributor, the core distributor has a drivable rotor, which comprises at least one core receptacle over its circumference, and a movement path of the at least one core receptacle and a movement path of the dies of the rotary tablet press intersect in a reference circle, characterised in that the at least one core receptacle comprises gripper elements controlled pneumatically by compressed air for receiving the inserts, for centring the inserts, for transporting the inserts and for ejecting the inserts and in that the core distributor comprises a pneumatic connection, which is in operative connection with valves, which are used for controlling the gripper elements and wherein the valves can be controlled by a stationary control cam of the core distributor for controlling the gripper elements.
A heating element, in particular for heating surfaces in contact with the user in a passenger compartment of a vehicle, comprising at least one electric conductor, wherein the electric conductivity of at least one of said conductors is irreversibly interrupted if its temperature is at least locally above an allowable maximum temperature, characterized in that the conductor and/or one of its individual strands has an electric resistivity between 100 Ω/m and 1000 Ω/m and in that the electric conductor includes at least one inner strand having a thickness of less than 500 μm and at least one electrically conductive sheathing layer having a thickness of less than 1 μm at least partially surrounding the inner strand.
A cable management system comprising a support element in combination with a plurality of cable management devices, wherein each cable management device comprises a base and first and second arms (12,14) extending from the base in a first direction, the base and the arms (12,14) together defining an enclosure for receiving one or more cables, and a first attachment device configured to releasably attach the cable management device to the support element, the first attachment device comprising an elongate rod attached to the base portion and extending in a second direction perpendicular to the first direction, wherein the base and the arms (12,14) have a width dimension in the second direction and the length of the elongate rod is greater than the width dimension so that the rod extends beyond each side of the enclosure and further comprising a second attachment device configured to releasably attach the cable management device to the support element and joined to the base at a location spaced from the first attachment device, wherein the support element defines a first elongate channel configured to releasable receive the first attachment device of the cable management devices, characterized in that the support element further defines a second elongate channel for receiving the base of the cable management devices, and wherein the first elongate channel is formed on one side of the second elongate channel and on the opposite side the second elongate channel comprises a lip for releasable engagement with the second attachment device of each of the plurality of the cable management devices.
A method of treating a part made of aluminum alloy containing copper at a content lying in the range 0.1% to 10% by weight, the method being characterized by comprising the following steps: (a) providing said part, (b) performing electrochemical pretreatment of said part in a first electrolyte bath containing sulfuric acid and a first oxidizer compound, a first potential difference ΔV1 being established between a first cathode and a first anode dipped in said first bath, said part being said first anode, the concentration of said first oxidizer compound being such that the corrosion potential of said aluminum alloy is greater than +100 mV relative to a Hydrogen Normal Electrode; c. after step (b), anodizing said part in a second electrolyte bath containing sulfuric acid and a second oxidizer compound, a second potential difference ΔV2 being established between a second cathode and a second anode dipped in said second bath, said part being said second anode. (a) providing said part, (b) performing electrochemical pretreatment of said part in a first electrolyte bath containing sulfuric acid and a first oxidizer compound, a first potential difference ΔV1 being established between a first cathode and a first anode dipped in said first bath, said part being said first anode, the concentration of said first oxidizer compound being such that the corrosion potential of said aluminum alloy is greater than +100 mV relative to a Hydrogen Normal Electrode; c. after step (b), anodizing said part in a second electrolyte bath containing sulfuric acid and a second oxidizer compound, a second potential difference ΔV2 being established between a second cathode and a second anode dipped in said second bath, said part being said second anode.
A method of displaying optimized aircraft energy level of an aircraft to a flight crew, the method comprising the steps of: processing flight plan data, in a processor, to determine an optimized aircraft energy level along a descent profile of the aircraft from cruise altitude down to aircraft destination; continuously processing aircraft data, in the processor, to continuously determine, in real-time, an actual aircraft energy level; continuously comparing, in the processor, the actual aircraft energy level of the aircraft to the optimized aircraft energy level; commanding, using the processor, a display device to render an image that indicates: (i) the optimized aircraft energy level, (ii) how the actual aircraft energy level differs from the optimized aircraft energy level, and (iii) how the actual aircraft energy level is trending relative to the optimized aircraft energy level; and characterized in that the method further comprises the step of: commanding, using the processor, the display device to render one or more visual cues that indicate actions the flight crew could take to converge the actual aircraft energy level toward the optimized aircraft energy level. processing flight plan data, in a processor, to determine an optimized aircraft energy level along a descent profile of the aircraft from cruise altitude down to aircraft destination; continuously processing aircraft data, in the processor, to continuously determine, in real-time, an actual aircraft energy level; continuously comparing, in the processor, the actual aircraft energy level of the aircraft to the optimized aircraft energy level; commanding, using the processor, a display device to render an image that indicates: (i) the optimized aircraft energy level, (ii) how the actual aircraft energy level differs from the optimized aircraft energy level, and (iii) how the actual aircraft energy level is trending relative to the optimized aircraft energy level; and (i) the optimized aircraft energy level, (ii) how the actual aircraft energy level differs from the optimized aircraft energy level, and (iii) how the actual aircraft energy level is trending relative to the optimized aircraft energy level; and characterized in that the method further comprises the step of: commanding, using the processor, the display device to render one or more visual cues that indicate actions the flight crew could take to converge the actual aircraft energy level toward the optimized aircraft energy level.
Steel bar transverse stepping conveying equipment, comprising a base, wherein a front movable clamp area and a rear fixed clamp area are provided on the base and are connected through rear-fixed-clamp-area connecting guiderail mechanisms to perform a relative translational movement; the front movable clamp area consists of a front-movable-clamp-area clamp, a front-movable-clamp-area left-right moving plate, and a front-movable-clamp-area up-down moving plate, the front-movable-clamp-area clamp is fixedly connected to the front-movable-clamp-area up-down moving plate, and the front-movable-clamp-area left-right moving plate is mounted on a back surface of the front-movable-clamp-area up-down moving plate and is movably connected to the front-movable-clamp-area up-down moving plate; and the rear fixed clamp area consists of a rear-fixed-clamp-area clamp device and a rear-fixed-clamp-area fixed plate, the rear-fixed-clamp-area clamp device is mounted on the rear-fixed-clamp-area fixed plate, and the rear-fixed-clamp-area clamp device consists of a rear-fixed-clamp-area clamp and a rear-fixed-clamp-area clamp guide plate.
A method of operating a sliding door system, comprising a door drive with a traction means formed as a toothed belt, a sliding door gear with a displaceable carriage for a sliding door element, which is coupled to the traction means, and an interlocking device for interlocking the door drive, wherein the interlocking device includes at least one interlocking means, which is movable back and forth between a release location and an interlocking location, wherein, in the interlocking location, an interlocking section of the interlocking means positively cooperates with the traction means, wherein the method comprises the following method steps: - in a trigger step (103, 206, 306) an interlocking command is transmitted to the interlocking device for moving the interlocking means to the interlocking location; and - in a detection step (104, 207, 307) following the trigger step (103, 206, 306), a position sensor of the interlocking device detects the location of the interlocking means, characterized in that furthermore the method comprises the following method steps: wherein - in a movement step following the detection step, the traction means is moved by a specified travel length with regard to the interlocking means; and - after the movement step are repeated the trigger step and the detection step. - in a trigger step (103, 206, 306) an interlocking command is transmitted to the interlocking device for moving the interlocking means to the interlocking location; and - in a detection step (104, 207, 307) following the trigger step (103, 206, 306), a position sensor of the interlocking device detects the location of the interlocking means, characterized in that furthermore the method comprises the following method steps: wherein - in a movement step following the detection step, the traction means is moved by a specified travel length with regard to the interlocking means; and - after the movement step are repeated the trigger step and the detection step.
A nucleic acid molecule encoding a polypeptide having the activity of a catalase (EC 1.11.1.6), which nucleic acid molecule is (a) a nucleic acid molecule encoding a polypeptide comprising or consisting of the amino acid sequence of SEQ ID NO: 1; (b) a nucleic acid molecule comprising or consisting of the nucleotide sequence of SEQ ID NO: 2; (c) a nucleic acid molecule comprising or consisting of a nucleic acid molecule encoding a polypeptide having the activity of a catalase the amino acid sequence of which is at least 99% identical to the amino acid sequence of SEQ ID NO: 1, (d) a nucleic acid molecule encoding a polypeptide having the activity of a catalase and comprising or consisting of a nucleotide sequence which is at least 98% identical to the nucleotide sequence of SEQ ID NO: 2, (e) a fragment of the polypeptide of any of (a) to (d) having the activity of a catalase and comprising at least 675 amino acids, or (f) the nucleic acid sequence of any of (a) to (d) wherein T is U. (a) a nucleic acid molecule encoding a polypeptide comprising or consisting of the amino acid sequence of SEQ ID NO: 1; (b) a nucleic acid molecule comprising or consisting of the nucleotide sequence of SEQ ID NO: 2; (c) a nucleic acid molecule comprising or consisting of a nucleic acid molecule encoding a polypeptide having the activity of a catalase the amino acid sequence of which is at least 99% identical to the amino acid sequence of SEQ ID NO: 1, (d) a nucleic acid molecule encoding a polypeptide having the activity of a catalase and comprising or consisting of a nucleotide sequence which is at least 98% identical to the nucleotide sequence of SEQ ID NO: 2, (e) a fragment of the polypeptide of any of (a) to (d) having the activity of a catalase and comprising at least 675 amino acids, or (f) the nucleic acid sequence of any of (a) to (d) wherein T is U.