mhurhangee/ep-ind-claims huggingface dataset:
An Autonomous System domain network, referred to as Autonomous System domain, comprising: a topology transparent sub-network, referred to as topology transparent zone comprising a plurality of topology transparent zone nodes at least some of which are topology transparent zone edge nodes, wherein the topology transparent zone nodes are interconnected with one another via a plurality of internal links; and a plurality of neighboring external nodes connected to the topology transparent zone edge nodes via a plurality of external links, wherein the topology transparent edge nodes are configured to construct and send a common router advertisement to the neighboring external nodes, wherein the common router advertisement describes the topology transparent zone as a single router comprising a plurality of interfaces corresponding to the plurality of external links connected to the topology transparent zone, wherein a primary topology transparent zone node is configured to construct and sends the common router advertisement to the neighboring external nodes, and wherein the topology transparent zone is configured to not distribute link state advertisements, LSAs, describing the internal links to the neighboring external nodes, and the topology transparent zone is assigned a topology transparent zone identifier, ID, and wherein the external nodes perceive the topology transparent zone as a single router. a topology transparent sub-network, referred to as topology transparent zone comprising a plurality of topology transparent zone nodes at least some of which are topology transparent zone edge nodes, wherein the topology transparent zone nodes are interconnected with one another via a plurality of internal links; and a plurality of neighboring external nodes connected to the topology transparent zone edge nodes via a plurality of external links, wherein the topology transparent edge nodes are configured to construct and send a common router advertisement to the neighboring external nodes, wherein the common router advertisement describes the topology transparent zone as a single router comprising a plurality of interfaces corresponding to the plurality of external links connected to the topology transparent zone, wherein a primary topology transparent zone node is configured to construct and sends the common router advertisement to the neighboring external nodes, and wherein the topology transparent zone is configured to not distribute link state advertisements, LSAs, describing the internal links to the neighboring external nodes, and the topology transparent zone is assigned a topology transparent zone identifier, ID, and wherein the external nodes perceive the topology transparent zone as a single router.
A method of forming a melt-resistant glass fiber product, said method comprising: applying an insulating material to a glass fiber product comprised of filiform glass fibers to form a wetted mixture including the filiform glass fibers and the insulating material by interacting the filiform glass fibers with the insulation material comprising a fire-retarding solution configured to coat each of the filiform glass fibers therewith, the wetted mixture having a solids content of the fire-retarding solution uniformly and thoroughly dispersed therethrough and the coated filiform glass fibers rendering the glass fiber product resistant to heat; de-liquefying the wetted mixture to form dry melt-resistant filiform glass fibers; forming a cohesive glass fiber mixture from the dry-melt resistant filiform glass fibers and a glass fiber binding agent; introducing a layer of a cohesive cellulose mixture between two layers of the cohesive glass fiber mixture; and forming the adjacent layers into one of a composite board product and a composite sheet product. applying an insulating material to a glass fiber product comprised of filiform glass fibers to form a wetted mixture including the filiform glass fibers and the insulating material by interacting the filiform glass fibers with the insulation material comprising a fire-retarding solution configured to coat each of the filiform glass fibers therewith, the wetted mixture having a solids content of the fire-retarding solution uniformly and thoroughly dispersed therethrough and the coated filiform glass fibers rendering the glass fiber product resistant to heat; de-liquefying the wetted mixture to form dry melt-resistant filiform glass fibers; forming a cohesive glass fiber mixture from the dry-melt resistant filiform glass fibers and a glass fiber binding agent; introducing a layer of a cohesive cellulose mixture between two layers of the cohesive glass fiber mixture; and forming the adjacent layers into one of a composite board product and a composite sheet product.
An apparatus for a helmet accessory mount, comprising: a carrier attachable to a helmet and a receptacle, that is configured to hold a helmet accessory mounting interface, the carrier including: a first arm and a second arm located opposite one another relative to a central region of the carrier, each arm extending in a respective direction away from the central region of the carrier; and characterized in that the carrier further includes a receptacle-receiving portion to removably receive the receptacle, wherein the receptacle-receiving portion comprises an opening for attachment of the helmet accessory mounting interface to the helmet. a carrier attachable to a helmet and a receptacle, that is configured to hold a helmet accessory mounting interface, the carrier including: a first arm and a second arm located opposite one another relative to a central region of the carrier, each arm extending in a respective direction away from the central region of the carrier; and characterized in that the carrier further includes a receptacle-receiving portion to removably receive the receptacle, wherein the receptacle-receiving portion comprises an opening for attachment of the helmet accessory mounting interface to the helmet. a first arm and a second arm located opposite one another relative to a central region of the carrier, each arm extending in a respective direction away from the central region of the carrier; and characterized in that the carrier further includes a receptacle-receiving portion to removably receive the receptacle, wherein the receptacle-receiving portion comprises an opening for attachment of the helmet accessory mounting interface to the helmet.
A composition for preparing a patch for transdermal delivery of donepezil, comprising: an adhesive matrix comprising (a) 5-50 wt% donepezil free base; (b) 5-50 wt% of at least one adhesive polymer; (c) 5-40 wt% of at least one solubility enhancer that is an ester of a dicarboxylic acid; and (d) 1-20 wt% of at least one lipophilic permeation enhancer that is selected from a fatty acid, an α-hydroxy acid, a β-hydroxy acid, and a keto carboxylic acid. (a) 5-50 wt% donepezil free base; (b) 5-50 wt% of at least one adhesive polymer; (c) 5-40 wt% of at least one solubility enhancer that is an ester of a dicarboxylic acid; and (d) 1-20 wt% of at least one lipophilic permeation enhancer that is selected from a fatty acid, an α-hydroxy acid, a β-hydroxy acid, and a keto carboxylic acid.
A process for microbial production of xylitol from xylose containing biomass comprising: a) growing of a yeast strain capable of converting xylose to xylitol in a solid medium; b) inoculating the yeast strain obtained from step (a) in a seed fermentor containing seed medium; and c) culturing the yeast strain from step (b) by transferring said yeast strain to a production fermentor having xylose containing production medium; wherein fermentation of said xylose containing biomass is carried out in batch mode followed by continuous mode, wherein i. said fermentation is performed at a higher agitation speed for the initial 0-24 hrs of batch mode fermentation and at a lower agitation speed for the next 24-72 hours of batch fermentation; ii. the agitation speed is kept constant during the subsequent continuous mode till final harvest of the fermentation; and d) in continuous mode, the yeast strain is removed from said production medium; and the xylitol product is continuously removed from said production medium at a flow rate and fresh production medium is continuously added to the production fermentor at the same flow rate for continuous production of xylitol. a) growing of a yeast strain capable of converting xylose to xylitol in a solid medium; b) inoculating the yeast strain obtained from step (a) in a seed fermentor containing seed medium; and c) culturing the yeast strain from step (b) by transferring said yeast strain to a production fermentor having xylose containing production medium; wherein fermentation of said xylose containing biomass is carried out in batch mode followed by continuous mode, wherein i. said fermentation is performed at a higher agitation speed for the initial 0-24 hrs of batch mode fermentation and at a lower agitation speed for the next 24-72 hours of batch fermentation; ii. the agitation speed is kept constant during the subsequent continuous mode till final harvest of the fermentation; and i. said fermentation is performed at a higher agitation speed for the initial 0-24 hrs of batch mode fermentation and at a lower agitation speed for the next 24-72 hours of batch fermentation; ii. the agitation speed is kept constant during the subsequent continuous mode till final harvest of the fermentation; and d) in continuous mode, the yeast strain is removed from said production medium; and the xylitol product is continuously removed from said production medium at a flow rate and fresh production medium is continuously added to the production fermentor at the same flow rate for continuous production of xylitol.
A plasticizer composition, comprising: two or more kinds of cyclohexane 1,4-diester-based materials; and a citrate-based material, wherein a weight ratio of the cyclohexane 1,4-diester-based materials and the citrate-based material is from 99:1 to 1:99, wherein the citrate-based material comprises any one selected from the group consisting of 1,2-dibutyl 3-(2-ethylhexyl) 2-hydroxypropane-1,2,3-tricarboxylate, 1,3-dibutyl 2-(2-ethylhexyl) 2-hydroxypropane-1,2,3-tricarboxylate, 1-butyl 2,3-di(2-ethylhexyl) 2-hydroxypropane-1,2,3-tricarboxylate, 2-butyl 1,3-di(2-ethylhexyl) 2-hydroxypropane-1,2,3-tricarboxylate, 1,2-dipentyl 3-heptyl 2-hydroxypropane-1,2,3-tricarboxylate, 1,3-dipentyl 2-heptyl 2-hydroxypropane-1,2,3-tricarboxylate, 1-pentyl 2,3-diheptyl 2-hydroxypropane-1,2,3-tricarboxylate, 2-butyl 1,3-diheptyl 2-hydroxypropane-1,2,3-tricarboxylate, tributyl citrate, tripentyl citrate, trihexyl citrate, triheptyl citrate, tri(2-ethylhexyl) citrate, trinonyl citrate, and tri(2-propylheptyl) citrate. two or more kinds of cyclohexane 1,4-diester-based materials; and a citrate-based material, wherein a weight ratio of the cyclohexane 1,4-diester-based materials and the citrate-based material is from 99:1 to 1:99, wherein the citrate-based material comprises any one selected from the group consisting of 1,2-dibutyl 3-(2-ethylhexyl) 2-hydroxypropane-1,2,3-tricarboxylate, 1,3-dibutyl 2-(2-ethylhexyl) 2-hydroxypropane-1,2,3-tricarboxylate, 1-butyl 2,3-di(2-ethylhexyl) 2-hydroxypropane-1,2,3-tricarboxylate, 2-butyl 1,3-di(2-ethylhexyl) 2-hydroxypropane-1,2,3-tricarboxylate, 1,2-dipentyl 3-heptyl 2-hydroxypropane-1,2,3-tricarboxylate, 1,3-dipentyl 2-heptyl 2-hydroxypropane-1,2,3-tricarboxylate, 1-pentyl 2,3-diheptyl 2-hydroxypropane-1,2,3-tricarboxylate, 2-butyl 1,3-diheptyl 2-hydroxypropane-1,2,3-tricarboxylate, tributyl citrate, tripentyl citrate, trihexyl citrate, triheptyl citrate, tri(2-ethylhexyl) citrate, trinonyl citrate, and tri(2-propylheptyl) citrate.
A method for detecting a fluid surface, comprising the following steps: providing at least one probe having an electric capacitance with respect to its ambient; moving the probe into or out of a fluid; charging the probe by applying a periodic first electric signal to the probe; applying a periodic third electric signal to one or more probes arranged adjacent to the probe to which the first electric signal is applied simultaneously with applying the first electric signal to the probe, wherein the third electric signal is based on the first electric signal; at least partially discharging the probe while not applying the first electric signal to the probe by connecting the probe to electric ground so as to obtain a discharging current; detecting a second electric signal based on the discharging current; analyzing the second electric signal or a signal derived from the second electric signal with respect to the capacitance of the probe to which the first electric signal is applied; identifying the fluid surface of the fluid based on a change of the capacitance of the probe to which the first electric signal is applied. providing at least one probe having an electric capacitance with respect to its ambient; moving the probe into or out of a fluid; charging the probe by applying a periodic first electric signal to the probe; applying a periodic third electric signal to one or more probes arranged adjacent to the probe to which the first electric signal is applied simultaneously with applying the first electric signal to the probe, wherein the third electric signal is based on the first electric signal; at least partially discharging the probe while not applying the first electric signal to the probe by connecting the probe to electric ground so as to obtain a discharging current; detecting a second electric signal based on the discharging current; analyzing the second electric signal or a signal derived from the second electric signal with respect to the capacitance of the probe to which the first electric signal is applied; identifying the fluid surface of the fluid based on a change of the capacitance of the probe to which the first electric signal is applied.
A nicotine delivery system comprising a housing that has a longitudinal axis and which defines a chamber that is configured to receive a plunger and has an outlet for the passage of a formulation out of the chamber, and an actuating mechanism comprising an actuator and an actuation member, wherein the actuator cooperates with the actuation member such that when a plunger is received in the chamber the plunger and the chamber slide relative to each other in an axial direction by a predetermined incremental distance in response to each operation of the actuator by a user to displace a predetermined volume of formulation from the chamber through said outlet, characterised in that the system further comprises a first biasing means that is configured to bias the actuation member in an axial direction.
A sole structure for an article of footwear comprising: a sole plate including a midfoot region, a forefoot region, and a heel region; wherein the sole plate has a foot-facing surface with ridges (40, 40A, 40B, 40C, 40D) extending longitudinally such that the foot-facing surface has a undulating profile at a transverse cross-section of the sole plate through the ridges (40, 40A, 40B, 40C, 40D); wherein the sole plate has a ground-facing surface with grooves (42, 42A, 42B, 42C, 42D) extending longitudinally; wherein at least some of the ridges (40, 40A, 40B, 40C, 40D) of the foot-facing surface extend non-parallel with one another, and at least some of the grooves (42, 42A, 42B, 42C, 42D) of the ground-facing surface extend non-parallel with one another in correspondence with the ridges (40, 40A, 40B, 40C, 40D); wherein the ridges (40, 40A, 40B, 40C, 40D) and the grooves (42, 42A, 42B, 42C, 42D) are configured such that a thickness of the sole plate from the foot-facing surface to the ground-facing surface varies at the transverse cross-section, or varies along a length of at least one of the ridges (40, 40A, 40B, 40C, 40D), or varies at both the transverse cross-section and along the length of the at least one of the ridges (40, 40A, 40B, 40C, 40D); and at least some of the ridges (40, 40A, 40B, 40C, 40D) vary in amplitude in a longitudinal direction of the sole plate. a sole plate including a midfoot region, a forefoot region, and a heel region; wherein the sole plate has a foot-facing surface with ridges (40, 40A, 40B, 40C, 40D) extending longitudinally such that the foot-facing surface has a undulating profile at a transverse cross-section of the sole plate through the ridges (40, 40A, 40B, 40C, 40D); wherein the sole plate has a ground-facing surface with grooves (42, 42A, 42B, 42C, 42D) extending longitudinally; wherein at least some of the ridges (40, 40A, 40B, 40C, 40D) of the foot-facing surface extend non-parallel with one another, and at least some of the grooves (42, 42A, 42B, 42C, 42D) of the ground-facing surface extend non-parallel with one another in correspondence with the ridges (40, 40A, 40B, 40C, 40D); wherein the ridges (40, 40A, 40B, 40C, 40D) and the grooves (42, 42A, 42B, 42C, 42D) are configured such that a thickness of the sole plate from the foot-facing surface to the ground-facing surface varies at the transverse cross-section, or varies along a length of at least one of the ridges (40, 40A, 40B, 40C, 40D), or varies at both the transverse cross-section and along the length of the at least one of the ridges (40, 40A, 40B, 40C, 40D); and at least some of the ridges (40, 40A, 40B, 40C, 40D) vary in amplitude in a longitudinal direction of the sole plate.
A surgical bone milling instrument, serving to operate in a hole formed in bone, comprising a milling element, having a longitudinal axis and a forward end portion capable of rotating around a longitudinal axis, and destined to mill a bone, characterized in that it comprises: a tubular element having an external surface with a circular cross-section and being provided with a thread destined to engage, by helical coupling, in the hole formed in the bone, the milling element being inserted coaxially through the tubular element so that the forward end portion of the milling element is located forward of the tubular element, and with the possibility of rotating around the longitudinal axis relative to the tubular element and the possibility of axial movement relative to the tubular element; means for limiting to a predetermined extent the axial movement of the milling element relative to the tubular element, and further comprises a drive element, located rear of the tubular element, fixed to the milling element, rotating the milling element and moving it axially in relation to the tubular element. a tubular element having an external surface with a circular cross-section and being provided with a thread destined to engage, by helical coupling, in the hole formed in the bone, the milling element being inserted coaxially through the tubular element so that the forward end portion of the milling element is located forward of the tubular element, and with the possibility of rotating around the longitudinal axis relative to the tubular element and the possibility of axial movement relative to the tubular element; means for limiting to a predetermined extent the axial movement of the milling element relative to the tubular element, and further comprises a drive element, located rear of the tubular element, fixed to the milling element, rotating the milling element and moving it axially in relation to the tubular element.
A method for separating seismic field data where at least two vibratory sources and two or more receivers are provided and said vibratory sources are each capable of generating a sweep of vibrations into the ground, and a sweep of vibrations is emitted into the ground by said vibratory sources and concurrently a setup field data from each of said vibratory sources is recorded using each of said receivers, wherein an initial Ground Force Estimate, GFE, specific to each of said vibratory sources is obtained, wherein said initial GFE is obtained from a baseplate and reaction masses of said vibratory sources, the method including: a) performing iterative inversion for the setup field data from each of said vibratory sources using said initial GFE as preliminary input to obtain inverted setup field data; b) separating said inverted setup field data to obtain a shot record for each of said receivers from each of said vibratory sources, wherein for each said vibratory source the number of said shot records is the same as the number of said receivers; c) obtaining a derived GFE based on the separated setup field data; and d) analyzing the seismic field data using said derived GFE in place of said initial GFE to separate the seismic field data originating from different vibratory sources and to obtain a final seismic record; characterised in that the step of obtaining a derived GFE comprises: c1) comparing and differencing shot records of the same vibratory source to yield crosstalk; and c2) subtracting said crosstalk from said initial GFE to obtain a derived GFE. a) performing iterative inversion for the setup field data from each of said vibratory sources using said initial GFE as preliminary input to obtain inverted setup field data; b) separating said inverted setup field data to obtain a shot record for each of said receivers from each of said vibratory sources, wherein for each said vibratory source the number of said shot records is the same as the number of said receivers; c) obtaining a derived GFE based on the separated setup field data; and d) analyzing the seismic field data using said derived GFE in place of said initial GFE to separate the seismic field data originating from different vibratory sources and to obtain a final seismic record; c1) comparing and differencing shot records of the same vibratory source to yield crosstalk; and c2) subtracting said crosstalk from said initial GFE to obtain a derived GFE.
A method of processing a beacon signal by a terminal, the method comprising: said terminal performing the following steps receiving (710, 1110, 1710, 2210, 2410) a first beacon signal from a first beacon at a first time; receiving (720, 1120, 1720, 2220, 2420) a second beacon signal from a second beacon at a second time; obtaining (730, 1730, 2230) a first distance between the first beacon and the second beacon; estimating a movement of the terminal by using the first distance and the first time and the second time; sensing first movement information of the terminal; and identifying (760, 1150, 1760, 2260, 2440) a location error of at least one of the first beacon and the second beacon, by comparing the sensed first movement information and the estimated movement of the terminal, the method further comprising said terminal abstaining (1060, 1080, 1960, 1980) from processing at least one of relevant information of the first beacon and relevant information of the second beacon, based on the identified location error of the at least one of the first beacon and the second beacon. said terminal performing the following steps receiving (710, 1110, 1710, 2210, 2410) a first beacon signal from a first beacon at a first time; receiving (720, 1120, 1720, 2220, 2420) a second beacon signal from a second beacon at a second time; obtaining (730, 1730, 2230) a first distance between the first beacon and the second beacon; estimating a movement of the terminal by using the first distance and the first time and the second time; sensing first movement information of the terminal; and identifying (760, 1150, 1760, 2260, 2440) a location error of at least one of the first beacon and the second beacon, by comparing the sensed first movement information and the estimated movement of the terminal, the method further comprising said terminal abstaining (1060, 1080, 1960, 1980) from processing at least one of relevant information of the first beacon and relevant information of the second beacon, based on the identified location error of the at least one of the first beacon and the second beacon.