mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining, by a device in a network, that a latency between a receive timeslot of a channel hopping schedule of the device and a transmit timeslot of the channel hopping schedule is greater than a latency threshold for a particular traffic flow to be received during the receive timeslot; requesting, by the device from a parent node of the device in the network, an additional transmit timeslot for the channel hopping schedule that is closer in time to the receive timeslot for the particular traffic flow than the transmit timeslot; receiving, at the device, an indication of a newly allocated transmit timeslot for the channel hopping schedule from the parent node; and mapping, by the device, the receive timeslot to the newly allocated transmit timeslot, wherein the particular traffic flow is to be forwarded to a second device during the mapped transmit timeslot. determining, by a device in a network, that a latency between a receive timeslot of a channel hopping schedule of the device and a transmit timeslot of the channel hopping schedule is greater than a latency threshold for a particular traffic flow to be received during the receive timeslot; requesting, by the device from a parent node of the device in the network, an additional transmit timeslot for the channel hopping schedule that is closer in time to the receive timeslot for the particular traffic flow than the transmit timeslot; receiving, at the device, an indication of a newly allocated transmit timeslot for the channel hopping schedule from the parent node; and mapping, by the device, the receive timeslot to the newly allocated transmit timeslot, wherein the particular traffic flow is to be forwarded to a second device during the mapped transmit timeslot.
Firing mechanism for a sporting firearm of the type comprising a barrel with a chamber, a breech block comprising a firing pin driven by a mainspring and positioned to strike a round of ammunition contained in said chamber, the firing mechanism being adapted to cooperate with said firing pin, where said firing mechanism comprises: - a release lever comprising a detent pawl adapted to cooperate reversibly with said firing pin; - a trigger; - a plurality of levers (6, 7), interposed between said trigger and said release lever, adapted, upon activation of said trigger, to cause the rotation of said release lever about its fulcrum and to free said firing pin; - a containment structure adapted to house said components (4,5,6,7); - elastic means applied to said release lever, and adapted to oppose the rotation thereof caused by the force exerted by the mainspring on the firing pin held back by the detent pawl, wherein: - said elastic means are applied to said release lever on the side opposite said detent pawl with respect to the fulcrum of the lever; - said elastic means comprise a tensioned coil spring, comprising a first end and a second end (9"), where said first end is associated with said release lever, and said second end (9") is associated, at least indirectly, with said containment structure of said firing mechanism, characterized in that said elastic means comprise means for regulating the elastic force of said tensioned coil spring. - a release lever comprising a detent pawl adapted to cooperate reversibly with said firing pin; - a trigger; - a plurality of levers (6, 7), interposed between said trigger and said release lever, adapted, upon activation of said trigger, to cause the rotation of said release lever about its fulcrum and to free said firing pin; - a containment structure adapted to house said components (4,5,6,7); - elastic means applied to said release lever, and adapted to oppose the rotation thereof caused by the force exerted by the mainspring on the firing pin held back by the detent pawl, - said elastic means are applied to said release lever on the side opposite said detent pawl with respect to the fulcrum of the lever; - said elastic means comprise a tensioned coil spring, comprising a first end and a second end (9"), where said first end is associated with said release lever, and said second end (9") is associated, at least indirectly, with said containment structure of said firing mechanism, characterized in that said elastic means comprise means for regulating the elastic force of said tensioned coil spring.
A film comprising a release liner, a pressure sensitive adhesive layer, a substrate layer, and a print layer, wherein the print layer includes a. an emulsion polymer being a blend of a vinyl acetate homopolymer and a vinyl acetate ethylene copolymer mixed with b. at least one nonhalogen fire retardant. a. an emulsion polymer being a blend of a vinyl acetate homopolymer and a vinyl acetate ethylene copolymer mixed with b. at least one nonhalogen fire retardant.
Spool valve, with a valve spool which can be loaded by way of an actuator of the spool valve in a first direction and by way of a loading device of the spool valve in a second direction which is opposed to the first, which valve spool, by means of a first, a second and a third control section, can hydraulically connect a first working connector (A; B) to a feed connector or an outflow connector (T1, T2), and a second working connector (B; A) to a or the feed connector or a or the outflow connector (T1, T2), the first control section which is assigned to the first working connector (A; B) comprising at least one first and one second part control section (30, 32) and a preferably radially circumferential recess which is arranged axially in between and can hydraulically connect the first working connector (A; B) to a or the outflow connector (T1, T2) in a manner which is dependent on an axial position of the valve spool, it being possible for the first part control section to hydraulically disconnect the first working connector (A; B) from the feed connector, and it being possible for the second part control section to hydraulically disconnect the first working connector (A; B) from a or the outflow connector (T1; T2), the valve spool having the second control section which is assigned to the feed connector and can hydraulically connect the feed connector alternately to the first working connector (A; B) or to the second working connector (B; A) in a manner which is dependent on the axial position of the valve spool, characterized in that an axial position and/or an axial measurement of the first control section as well as the first and second part control sections (30, 32), and an axial position and/or an axial measurement of the second control section and the third control section are dimensioned in relation to the valve spool in such a way that, when the actuator does not load the valve spool, the first working connector (A; B) is hydraulically connected to the outflow connector (T1; T2).
An expandable medical device comprising: a therapeutic coating comprising a polydopamine coated therapeutic agent disposed on a surface of the expandable medical device.
Method for managing the transmission of the location of a first geo-tag able to communicate with a second geo-tag, the tags (BAL1, BAL2) being classified into a plurality of respective categories, the first tag being associated with a first category, the method comprising the following steps in the first tag: a. detecting proximity between the first tag and the second geo-tag; b. obtaining the category associated with the second tag; c. transmitting, to the second tag, a request to transfer the management of the transmission of the location of the first tag, if the obtained category belongs to a second tag category, the second category being different from the first category. a. detecting proximity between the first tag and the second geo-tag; b. obtaining the category associated with the second tag; c. transmitting, to the second tag, a request to transfer the management of the transmission of the location of the first tag, if the obtained category belongs to a second tag category, the second category being different from the first category.
A door or window with a slidable lifting and sliding casement, a window frame, in which the casement is liftably and slidably held, and a driving device, wherein the driving device comprises an electric drive motor arranged on the casement side with a threaded spindle driven thereon for sliding the casement, wherein the drive motor and the threaded spindle form a structural unit and are mounted in a housing, wherein the driving device is forcibly guided in a horizontally adjustable manner by a gear rack element arranged at the window frame and arranged between the window frame and the driving device, and wherein the driving device, in the installed position of the casement into the window frame, enables a vertical displacement of the casement relative to the window frame, the driving device being positioned almost entirely concealed in a recess or receiving groove of an upper horizontal crosspiece of the casement and a guide rail arranged at the window frame, characterized in that an accumulator is mounted at the lifting and sliding casement, which accumulator is in continuous electrical contact to the driving device, wherein a contactor is present, which is arranged in extension to the gear rack element and which has a contact point, wherein the accumulator, in the closed state of the window or the door, establishes a connection for the electrical contact via the driving device to the contactor with the contact point to a power source arranged at the window frame or in a building wall, wherein the contact point is designed with a groove for inserting a contact tab arranged at the driving device with a contact point upon horizontal displacement of the lifting and sliding casement by the electric drive motor, wherein the groove is open towards the contact tab on the side opposite the window frame.
Granules comprising posaconazole molecularly dispersed in a mixture containing an enteric polymer and a non-enteric polymer, wherein the mixture is prepared by hot-melt extrusion, wherein the weight ratio of the enteric polymer to posaconazole is in the range of 5: 1 to 1.5: 1, and wherein at least 10 wt.-% of the granules, but not more than 80 wt.-%, have a particle size of 250 μm or more, as determined by sieve analysis.
A variable compression ratio internal combustion engine, comprising: a variable compression ratio mechanism for changing an engine compression ratio depending on a rotational position of a first control shaft; an actuator for changing and maintaining the rotational position of the first control shaft; and a coupling mechanism for coupling the actuator and the first control shaft, the coupling mechanism comprising: a second control shaft arranged in parallel with the first control shaft; a lever for coupling the first control shaft and the second control shaft; a first coupling pin for rotatably coupling a tip end of a first arm portion extending outward in a radial direction from a center of the first control shaft and one end of the lever; and a second coupling pin for rotatably coupling a tip end of a second arm portion extending outward in a radial direction from a center of the second control shaft and another end of the lever, characterized in that the engine further comprises: a bearing cap that is fixed to an engine body and rotatably supports a journal portion of the first control shaft, wherein, viewed in an axial direction of the first coupling pin, at least at a given compression ratio position, the first coupling pin is arranged at a position away from the bearing cap, and an oil pan for storing engine oil that comprises an oil pan upper formed on a bottom surface thereof with an opening portion and an oil pan lower that is attached to the opening portion of the oil pan upper and has a shallow pan form, wherein the opening portion of the oil pan upper is positioned below the first coupling pin. a variable compression ratio mechanism for changing an engine compression ratio depending on a rotational position of a first control shaft; an actuator for changing and maintaining the rotational position of the first control shaft; and a coupling mechanism for coupling the actuator and the first control shaft, a second control shaft arranged in parallel with the first control shaft; a lever for coupling the first control shaft and the second control shaft; a first coupling pin for rotatably coupling a tip end of a first arm portion extending outward in a radial direction from a center of the first control shaft and one end of the lever; and a second coupling pin for rotatably coupling a tip end of a second arm portion extending outward in a radial direction from a center of the second control shaft and another end of the lever, a bearing cap that is fixed to an engine body and rotatably supports a journal portion of the first control shaft, wherein, viewed in an axial direction of the first coupling pin, at least at a given compression ratio position, the first coupling pin is arranged at a position away from the bearing cap, and an oil pan for storing engine oil that comprises an oil pan upper formed on a bottom surface thereof with an opening portion and an oil pan lower that is attached to the opening portion of the oil pan upper and has a shallow pan form, wherein the opening portion of the oil pan upper is positioned below the first coupling pin.
A wing assembly, the wing assembly comprising: a main structure comprising a first contact face and a first recess arranged to receive a portion of a tension bolt; and wherein a modular edge comprising a second contact face and a second recess arranged to receive a portion of the tension bolt, the modular edge being pivotally mounted on the main structure for rotation between an installation position, in which the first and second contact faces (131, 129) are spaced apart, and an operational position, in which the first and second contact faces (131, 129) are abutting and the modular edge is aligned with the main structure to form at least part of an edge of the wing assembly; and the modular edge is aligned with the main structure to form at least part of a leading edge or trailing edge of the wing when the modular edge is in the operational position and wherein: the wing assembly is arranged such that, when the modular edge is in the operational position, tension in a tension bolt received in the first and second recesses (123, 113) acts to press the first and second contact faces (131, 129) together, thereby forming a tension joint that resists pivoting of the modular edge relative to the main structure, characterised in that the modular edge is pivotally mounted on the main structure by one or more fasteners, each fastener constraining the modular edge relative to the main structure in all degrees of freedom except rotation about a longitudinal axis of the fastener. a main structure comprising a first contact face and a first recess arranged to receive a portion of a tension bolt; and wherein a modular edge comprising a second contact face and a second recess arranged to receive a portion of the tension bolt, the modular edge being pivotally mounted on the main structure for rotation between an installation position, in which the first and second contact faces (131, 129) are spaced apart, and an operational position, in which the first and second contact faces (131, 129) are abutting and the modular edge is aligned with the main structure to form at least part of an edge of the wing assembly; and the modular edge is aligned with the main structure to form at least part of a leading edge or trailing edge of the wing when the the wing assembly is arranged such that, when the modular edge is in the operational position, tension in a tension bolt received in the first and second recesses (123, 113) acts to press the first and second contact faces (131, 129) together, thereby forming a tension joint that resists pivoting of the modular edge relative to the main structure, characterised in that the modular edge is pivotally mounted on the main structure by one or more fasteners, each fastener constraining the modular edge relative to the main structure in all degrees of freedom except rotation about a longitudinal axis of the fastener.
A hydrogen storage method comprising: a hydrogenation step of hydrogenating a hydrogen storage alloy of Mg 2 Ni or Mg 6 Ni while increasing pressure in an atmosphere; and a dehydrogenation step of dehydrogenating the hydrogenated hydrogen storage alloy while decreasing the pressure in the atmosphere, wherein: in the hydrogenation step, a hydrogen storage ratio calculated as an atomic weight ratio between hydrogen and the hydrogen storage alloy is obtained beforehand as a theoretical value, a pressure at which the hydrogen storage alloy stores hydrogen up to the theoretical value is set as a first pressure value, a pressure value ten or more times greater than the first pressure value is set as a second pressure value, and the pressure in the atmosphere is increased up to the second pressure value, in the dehydrogenation step, the pressure in the atmosphere is decreased from the second pressure value to or below the first pressure value, and the hydrogenation step and the dehydrogenation step are repeatedly executed. a hydrogenation step of hydrogenating a hydrogen storage alloy of Mg 2 Ni or Mg 6 Ni while increasing pressure in an atmosphere; and a dehydrogenation step of dehydrogenating the hydrogenated hydrogen storage alloy while decreasing the pressure in the atmosphere, wherein: in the hydrogenation step, a hydrogen storage ratio calculated as an atomic weight ratio between hydrogen and the hydrogen storage alloy is obtained beforehand as a theoretical value, a pressure at which the hydrogen storage alloy stores hydrogen up to the theoretical value is set as a first pressure value, a pressure value ten or more times greater than the first pressure value is set as a second pressure value, and the pressure in the atmosphere is increased up to the second pressure value, in the dehydrogenation step, the pressure in the atmosphere is decreased from the second pressure value to or below the first pressure value, and the hydrogenation step and the dehydrogenation step are repeatedly executed. in the hydrogenation step, a hydrogen storage ratio calculated as an atomic weight ratio between hydrogen and the hydrogen storage alloy is obtained beforehand as a theoretical value, a pressure at which the hydrogen storage alloy stores hydrogen up to the theoretical value is set as a first pressure value, a pressure value ten or more times greater than the first pressure value is set as a second pressure value, and the pressure in the atmosphere is increased up to the second pressure value, in the dehydrogenation step, the pressure in the atmosphere is decreased from the second pressure value to or below the first pressure value, and the hydrogenation step and the dehydrogenation step are repeatedly executed.
A test strip for testing the content of mycophenolic acid, comprising a bottom plate and a sample pad, a glassfiber membrane, a nitrocellulose membrane and an absorbent paper which are successively lapped on a surface of the bottom plate, wherein the sample pad is treated by a sample pad treatment fluid, and the sample pad treatment fluid comprises a buffer solution, an active protein and a surfactant; the active protein is selected from one or more of bovine serum albumin, casein and ovalbumin; the glassfiber membrane is treated by a glassfiber membrane treatment fluid, and the glassfiber membrane is coated by a mycophenolic acid specific-antibody conjugate; and the mass concentration of the mycophenolic acid specific-antibody conjugate is 0.1-0.3%, and the coating concentration of the mycophenolic acid specific-antibody conjugate is 0.5-1 mg/mL; the nitrocellulose membrane is provided with a detection line and quality control line, a mycophenolic acid protein conjugate is sprayed on the detection line, the concentration of the mycophenolic acid protein conjugate is 1-3 mg/ml, and the spraying amount is 1-3 μL/cm.
Composite containing at least two layers, one layer comprising a carbon-based felt material, characterised in that the at least two layers are connected via at least one CFC screw which has a thread that cuts into the felt material, CFC being understood to mean carbon fiber reinforced carbon.
A method for transmitting and receiving data by a relay node (30, 31, 32, 33, 300), the method comprising: receiving, by the relay node from a base station (20, 21, 22, 23, 200), downlink data via a subframe #n; and transmitting, from the relay node to the base station, the uplink signal in response to the downlink data via a subframe #n+k, wherein the uplink signal is for a Hybrid Automatic Repeat reQuest, HARQ, procedure, wherein the k is determined based on a value of n and information on a preset HARQ, wherein the information on the preset HARQ indicates whether the HARQ procedure is performed on an even-numbered subframe or an odd-numbered subframe, and wherein the n and the k are integers, and the n equals to or greater than 0, and equals to or smaller than 9. receiving, by the relay node from a base station (20, 21, 22, 23, 200), downlink data via a subframe #n; and transmitting, from the relay node to the base station, the uplink signal in response to the downlink data via a subframe #n+k, wherein the uplink signal is for a Hybrid Automatic Repeat reQuest, HARQ, procedure, wherein the k is determined based on a value of n and information on a preset HARQ, wherein the information on the preset HARQ indicates whether the HARQ procedure is performed on an even-numbered subframe or an odd-numbered subframe, and wherein the n and the k are integers, and the n equals to or greater than 0, and equals to or smaller than 9.
An isolated antibody or antibody fragment thereof which immunospecifically binds to Complement Factor H protein, wherein the antibody or antibody fragment thereof binds to an epitope of PIDNGDIT (SEQ ID NO: 3) within short consensus repeat 19 of the CFH protein, and wherein the antibody or antibody fragment comprises: (a) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:73 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:84; (b) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:74 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:83; (c) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:75 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:85; (d) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:78 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:88; or (e) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:79 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:89. (a) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:73 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:84; (b) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:74 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:83; (c) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:75 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:85; (d) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:78 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:88; or (e) a variable heavy domain comprising the amino acid sequence of SEQ ID NO:79 and a variable light domain region comprising the amino acid sequence of SEQ ID NO:89.