mhurhangee/ep-ind-claims huggingface dataset:
A user equipment comprising: a processor; and a memory coupled with the processor, the memory having stored thereon executable instructions that when executed by the processor cause the processor to effectuate operations comprising: storing a first wireless local area network (WLAN) quality of service (QoS) policy for data using an uplink of the user equipment; receiving a second WLAN QoS policy from a server for the data using the uplink of the user equipment; determining a third WLAN QoS policy for the data using the uplink of the user equipment, the third policy based on at least one of the first WLAN QoS policy and the second WLAN QoS policy; providing the data to the TWAN based on the third WLAN QoS policy; providing the third WLAN QoS policy to the TWAN for data using a downlink of the access point of the TWAN; and receiving a confirmation that the third WLAN QoS policy provided to the TWAN is configured in the TWAN for data using the downlink of the access point, AP, of the TWAN. a processor; and a memory coupled with the processor, the memory having stored thereon executable instructions that when executed by the processor cause the processor to effectuate operations comprising: storing a first wireless local area network (WLAN) quality of service (QoS) policy for data using an uplink of the user equipment; receiving a second WLAN QoS policy from a server for the data using the uplink of the user equipment; determining a third WLAN QoS policy for the data using the uplink of the user equipment, the third policy based on at least one of the first WLAN QoS policy and the second WLAN QoS policy; providing the data to the TWAN based on the third WLAN QoS policy; providing the third WLAN QoS policy to the TWAN for data using a downlink of the access point of the TWAN; and receiving a confirmation that the third WLAN QoS policy provided to the TWAN is configured in the TWAN for data using the downlink of the access point, AP, of the TWAN. storing a first wireless local area network (WLAN) quality of service (QoS) policy for data using an uplink of the user equipment; receiving a second WLAN QoS policy from a server for the data using the uplink of the user equipment; determining a third WLAN QoS policy for the data using the uplink of the user equipment, the third policy based on at least one of the first WLAN QoS policy and the second WLAN QoS policy; providing the data to the TWAN based on the third WLAN QoS policy; providing the third WLAN QoS policy to the TWAN for data using a downlink of the access point of the TWAN; and receiving a confirmation that the third WLAN QoS policy provided to the TWAN is configured in the TWAN for data using the downlink of the access point, AP, of the TWAN.
A resist underlayer composition comprising: (i) an organosilane condensation polymerization product obtained from at least one of the compounds of the Chemical Formula 1 and 2, and the compounds of the Chemical Formula 3 and 4, wherein the organosilane condensation polymerization product further includes a compound of the Chemical Formula 5; or (ii) an organosilane condensation polymerization product including a repeating unit represented by the Chemical Formula 6; and a solvent: [Chemical Formula 1] [R 1] 3 Si-[Ph 1] l -Si[R 2] 3 [Chemical Formula 2] [R 1] 3 Si-[Ph 1] m -Ph 2 [Chemical Formula 3] [R 1] 3 Si- (CH 2) n -R 3 [Chemical Formula 4] [R 1] 3 Si-R 4 [Chemical Formula 5] [R 1] 3 Si-X-Si[R 2] 3 [Chemical Formula 6] (SiO 1.5 -[Ph 1] l -SiO 1.5) a (Ph 2 -[Ph 1] m -SiO 1.5) b (R 3 - (CH 2) n -SiO 1.5) c (R 4 -SiO 1.5) d (SiO 1.5 -X-SiO 1.5) e, wherein 0≤a≤0.99, 0≤b≤0.99, 0.01≤a+b≤0.99, and 0≤c≤0.99, 0≤d≤0.99, 0<e≤0.99, 0.01≤c+d+e≤0.99, a+b+c+d+e=1; wherein in the Chemical Formula 1 to 6, Ph 1 is a substituted or unsubstituted phenylene group, Ph 2 is a substituted or unsubstituted phenyl group, R 1 and R 2 are the same or different, a halogen, a hydroxyl group, an alkoxy group, an ester group, a cyano group, a haloalkylsulfite group, an alkylamine group, an alkylsilylamine group, or an alkylsilyloxy group, R 3 is a substituted or unsubstituted C6 to C12 aryl group, R 4 is hydrogen or a C1 to C6 alkyl group, X is a linear or branched substituted or unsubstituted alkylene group; or an alkylene group including an alkenylene group, or an urea group, in its main chain, m is an integer ranging from 1 to 4, 1 is an integer ranging from 2 to 4, and n is 0 or an integer ranging from 1 to 5. (i) an organosilane condensation polymerization product obtained from at least one of the compounds of the Chemical Formula 1 and 2, and the compounds of the Chemical Formula 3 and 4, wherein the organosilane condensation polymerization product further includes a compound of the Chemical Formula 5; or (ii) an organosilane condensation polymerization product including a repeating unit represented by the Chemical Formula 6; and
A fall-protection counterweight apparatus for counterbalancing the weight of a user of a fall-protection element with a mast, in which the counterweight apparatus comprises a mast receiving module and a base module provided with a plurality of support legs, wherein the base module is formed by a base plate provided on its lower face with a plurality of leveling support legs for the horizontal arrangement of the base plate, and provided on its upper face with a plurality of projecting elements extending from the base plate in the direction perpendicular to the upper face of the base plate for fixing counterweight elements arranged on the base plate, and in that the mast receiving module is arranged on the upper face of the base plate and comprises a tubular body, the hollow of which is sized for tightly housing the mast of a fall-protection element.
A process for producing dihydroxy or polyhydroxy fatty acids comprising reacting palm-based oleic acids with performic acid formed in situ from a mixture of 1 to 2 moles of hydrogen peroxide and 0.40 to 1 mole of formic acid, per 1 mole unsaturation in palm-based oleic acids, in the presence of a catalyst which is sulphuric acid, said process comprising the steps of a) adding the full amount of palm-based oleic acids, formic acid and sulphuric acid, and about 15% of the required amount of hydrogen peroxide to a reactor, stirring the mixture to produce a homogenous mixture, b) when a slight drop in the reaction temperature is observed, adding the remaining amounts of hydrogen peroxide dropwisely, with constant stirring, and maintaining the reaction temperature between 80°C and 90°C throughout the reaction by applying heat when necessary, and wherein the duration of the reaction is 3-6 h. a) adding the full amount of palm-based oleic acids, formic acid and sulphuric acid, and about 15% of the required amount of hydrogen peroxide to a reactor, stirring the mixture to produce a homogenous mixture, b) when a slight drop in the reaction temperature is observed, adding the remaining amounts of hydrogen peroxide dropwisely, with constant stirring, and maintaining the reaction temperature between 80°C and 90°C throughout the reaction by applying heat when necessary,
A carrier allocation method, wherein the method comprises: acquiring, by a first base station, a carrier hopping pattern, wherein the base station selects a combination of a time unit, a carrier and a node used for sending a signal to a user equipment, UE, or receiving a signal sent by the UE, and select a carrier from a carrier set, in which the number of carriers is greater than the number of carriers supported by the user at any given point of time, to serve the UE; sending, by the first base station, carrier configuration information to a user equipment UE, wherein the carrier configuration information comprises information about activating carrier hopping and/or the carrier hopping pattern, the carrier hopping pattern presents a carrier set used by the user equipment in at least one time unit, and the carrier set comprises at least one carrier; and sending, by the first base station, a signal to the UE and/or receiving a signal from the UE according to the carrier hopping pattern, wherein the base station uses different carriers and different time units to send a signal to the UE or receiving a signal by the UE. acquiring, by a first base station, a carrier hopping pattern, wherein the base station selects a combination of a time unit, a carrier and a node used for sending a signal to a user equipment, UE, or receiving a signal sent by the UE, and select a carrier from a carrier set, in which the number of carriers is greater than the number of carriers supported by the user at any given point of time, to serve the UE; sending, by the first base station, carrier configuration information to a user equipment UE, wherein the carrier configuration information comprises information about activating carrier hopping and/or the carrier hopping pattern, the carrier hopping pattern presents a carrier set used by the user equipment in at least one time unit, and the carrier set comprises at least one carrier; and sending, by the first base station, a signal to the UE and/or receiving a signal from the UE according to the carrier hopping pattern, wherein the base station uses different carriers and different time units to send a signal to the UE or receiving a signal by the UE.
A method for operating a shredder the shredder including a housing having a throat for receiving at least one article to be shredded, and a shredder mechanism received in the housing and including an electrically powered motor and cutter elements, the shredder mechanism enabling the at least one article to be shredded to be fed into the cutter elements and the motor being operable to drive the cutter elements so that the cutter elements shred the articles fed therein, characterised in that the method comprises: selecting a type of material to be shredded via an input on the shredder, the selection determining a predetermined maximum thickness for the selected type of material; determining if a thickness of at least one article being inserted into a throat of the shredder is at least equal to the predetermined maximum thickness for the selected type of material; and, performing a predetermined operation if the detected thickness is at least equal to the predetermined maximum thickness. selecting a type of material to be shredded via an input on the shredder, the selection determining a predetermined maximum thickness for the selected type of material; determining if a thickness of at least one article being inserted into a throat of the shredder is at least equal to the predetermined maximum thickness for the selected type of material; and, performing a predetermined operation if the detected thickness is at least equal to the predetermined maximum thickness.
A medical device system comprising: a structure comprising a first elongate member; a line comprising a plurality of flexible members; and an actuator (540a, 540b, 546, 572) coupled to the line to selectively transmit force to at least the first elongate member, wherein the structure includes a delivery configuration in which at least a portion of the structure is arranged to be operably percutaneously delivered to a bodily cavity, the actuator configured to vary tension in the line as the structure is moved between the delivery configuration and a deployed configuration, wherein respective portions of the flexible members are intertwined together to form a braided portion of the line, the line comprising an unbraided portion secured to at least the first elongate member, and wherein the braided portion of the line is located between the actuator and the first elongate member. a structure comprising a first elongate member; a line comprising a plurality of flexible members; and an actuator (540a, 540b, 546, 572) coupled to the line to selectively transmit force to at least the first elongate member, wherein the structure includes a delivery configuration in which at least a portion of the structure is arranged to be operably percutaneously delivered to a bodily cavity, the actuator configured to vary tension in the line as the structure is moved between the delivery configuration and a deployed configuration, wherein respective portions of the flexible members are intertwined together to form a braided portion of the line, the line comprising an unbraided portion secured to at least the first elongate member, and wherein the braided portion of the line is located between the actuator and the first elongate member.
An electronic data process monitoring method for managing child data processes representing one or more child requests for transactions in financial interests spawned from at least one parent data process electronically routed to at least one destination device, the method comprising: receiving at least one child request of the one or more child requests being routed from an intermediary device to at least one corresponding destination device, the at least one child request requesting execution of at least one corresponding child data process of the child data processes, each of the at least one child data process for executing at least a portion of the at least one parent data process from an instructor device, and each of the at least one child request encoded using a destination encryption key that is derived using cascaded encoding at least in part from at least one instructor encryption key; storing the at least one child request in at least one data storage device; generating signals for communicating the one or more child requests to the instructor device or a requesting device associated with a regulator; and utilizing, by the instructor device or a requesting device associated with the regulator, an accessing device having at least one of the destination encryption key or the at least one instructor encryption key, to access the at least one child request recorded in the at least one data storage to identify one or more routing execution characteristics of the at least one child request to automatically verify the one or more routing execution characteristics of the at least one child request. receiving at least one child request of the one or more child requests being routed from an intermediary device to at least one corresponding destination device, the at least one child request requesting execution of at least one corresponding child data process of the child data processes, each of the at least one child data process for executing at least a portion of the at least one parent data process from an instructor device, and each of the at least one child request encoded using a destination encryption key that is derived using cascaded encoding at least in part from at least one instructor encryption key; storing the at least one child request in at least one data storage device; generating signals for communicating the one or more child requests to the instructor device or a requesting device associated with a regulator; and utilizing, by the instructor device or a requesting device associated with the regulator, an accessing device having at least one of the destination encryption key or the at least one instructor encryption key, to access the at least one child request recorded in the at least one data storage to identify one or more routing execution characteristics of the at least one child request to automatically verify the one or more routing execution characteristics of the at least one child request.
A vapor separator for a marine engine, said vapor separator comprising: a biasing element; a valve outlet including a valve seat; a needle valve between said biasing element and said valve outlet, said biasing element being configured to bias said needle valve against said valve seat; a coil capable of generating a magnetic field for moving said needle valve relative to said valve seat; a fuel level detector circuit electrically coupled to said coil and configured to activate said coil upon sensing a low fuel condition; and wherein the marine engine includes a power system having at least one of a battery and an alternator and wherein said vapor separator further includes a control circuit having a thermistor for sensing liquid fuel and wherein when power is supplied by the power system to said control circuit and said thermistor does not sense liquid fuel, said control circuit allows power to flow from the power system to said coil thereby to move said needle valve to an open position, and wherein said control circuit includes a timing delay which prevents power from being supplied to said coil when said thermistor does not sense liquid until after a specified time period has passed. a biasing element; a valve outlet including a valve seat; a needle valve between said biasing element and said valve outlet, said biasing element being configured to bias said needle valve against said valve seat; a coil capable of generating a magnetic field for moving said needle valve relative to said valve seat; a fuel level detector circuit electrically coupled to said coil and configured to activate said coil upon sensing a low fuel condition; and wherein the marine engine includes a power system having at least one of a battery and an alternator and wherein said vapor separator further includes a control circuit having a thermistor for sensing liquid fuel and wherein when power is supplied by the power system to said control circuit and said thermistor does not sense liquid fuel, said control circuit allows power to flow from the power system to said coil thereby to move said needle valve to an open position, and wherein said control circuit includes a timing delay which prevents power from being supplied to said coil when said thermistor does not sense liquid until after a specified time period has passed.
A lanyard assembly comprising: a strap (22, 218) having a first end (14, 222) and a second end (18, 226); a cinch coupled to the first end (14, 222); an attachment member coupled to the second end (18, 226); characterized by a tubular identifier sewn into the strap (22, 218), the tubular identifier configured for use with a tracking system that communicates when the strap (22, 218) is due to be inspected or replaced. a strap (22, 218) having a first end (14, 222) and a second end (18, 226); a cinch coupled to the first end (14, 222); an attachment member coupled to the second end (18, 226); characterized by a tubular identifier sewn into the strap (22, 218), the tubular identifier configured for use with a tracking system that communicates when the strap (22, 218) is due to be inspected or replaced.
Transfer plate for loading a cargo space, which transfer plate is intended to be moved, together with a load of load units, into the cargo space, and out of the cargo space, while the load of the load units remain in the cargo space, and which transfer plate withstands both pushing and pulling, and which transfer plate includes a front tip end, an opposite end, and two sides extending between the ends along a length of the transfer plate, characterized in that the transfer plate includes a flexible slippery plastic that withstand sliding over the base of the cargo space, and the transfer plate includes positioning means for positioning the transfer plate relative to the cargo space, and the positioning means are fitted to the tip end of the transfer plate, which is arranged first to enter the cargo space, and the positioning means consist of spring elements attached to the two sides along the length of the transfer plate, and the spring elements consist of a convexly curved leaf spring, the convex portion of which is arranged to protrude from the rest of the leaf spring and from the sides of the transfer plate, and the leaf spring has two ends (39, 40), one end floatingly attached to the transfer plate while the other end attached to the transfer plate.
An aircraft cabin comprising a passenger seating arrangement installed in the aircraft cabin, the passenger seating arrangement comprising a column of seat units adjacent an aisle, and the column of seat units and the aisle both extending in a longitudinal direction parallel to the longitudinal axis of the aircraft cabin, the column comprising a multiplicity of seat units, the seat units being arranged consecutively along the longitudinal direction, and wherein each consecutive seat unit alternates between: an inwardly-facing seat unit angled at an acute angle to the longitudinal axis of the aircraft cabin and facing inwardly towards the aisle; an outwardly-facing seat unit angled at the same acute angle to the longitudinal axis of the aircraft cabin but facing outwardly away from the aisle; and each seat unit is configurable between a seating configuration and a flat-bed configuration, and each seat unit comprises a foot-receiving end, the foot-receiving end defined by a fixed structure, and characterised in that, the foot-receiving end of each inwardly-facing seat unit houses a retractable armrest which is configurable between (i) a stowed position in which the armrest is substantially within the footprint of the foot-receiving end and (ii) a deployed position in which the armrest extends to one side away from the foot-receiving end, towards an adjacent outwardly-facing seat unit, such that the armrest provides an armrest surface for use by a passenger in the adjacent outwardly-facing seat unit, wherein the armrest is configured to move between the stowed and deployed positions within a single plane, and wherein each seat unit comprises a seat pan and the armrest is configured to move between the stowed and deployed positions within a plane which is above the seat pan of the adjacent seat unit. an inwardly-facing seat unit angled at an acute angle to the longitudinal axis of the aircraft cabin and facing inwardly towards the aisle; an outwardly-facing seat unit angled at the same acute angle to the longitudinal axis of the aircraft cabin but facing outwardly away from the aisle; and each seat unit is configurable between a seating configuration and a flat-bed configuration, and each seat unit comprises a foot-receiving end, the foot-receiving end defined by a fixed structure, and characterised in that, the foot-receiving end of each inwardly-facing seat unit houses a retractable armrest which is configurable between (i) a stowed position in which the armrest is substantially within the footprint of the foot-receiving end and (ii) a deployed position in which the armrest extends to one side away from the foot-receiving end, towards an adjacent outwardly-facing seat unit, such that the armrest provides an armrest surface for use by a passenger in the adjacent outwardly-facing seat unit, wherein the armrest is configured to move between the stowed and deployed positions within a single plane, and wherein each seat unit comprises a seat pan and the armrest is configured to move between the stowed and deployed positions within a plane which is above the seat pan of the adjacent seat unit.