mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sharing at least one annotation between a first user media terminal and a second user media terminal in a communication network, the at least one annotation being associated with a media stream, the media stream being executed on at least one of the first user media terminal and the second user media terminal , the method comprising: inputting the at least one annotation on the first user media terminal ; anchoring the at least one annotation to the media stream, the media stream being executed on the first user media terminal at a first start time; and sending the at least one annotation from the first user media terminal to the second user media terminal using a Peer-to-Peer protocol, the at least one annotation received at the second user media terminal is synchronized; and wherein the at least one annotation received at the second user media terminal is synchronized with the media stream based on a relative start time of the media stream on the first user media terminal and the second user media terminal , and wherein the relative start time is determined based on a relative clock skew, the relative clock skew being calculated directly between the first user media terminal and the second user media terminal . inputting the at least one annotation on the first user media terminal ; anchoring the at least one annotation to the media stream, the media stream being executed on the first user media terminal at a first start time; and sending the at least one annotation from the first user media terminal to the second user media terminal using a Peer-to-Peer protocol, the at least one annotation received at the second user media terminal is synchronized; and wherein the at least one annotation received at the second user media terminal is synchronized with the media stream based on a relative start time of the media stream on the first user media terminal and the second user media terminal , and wherein the relative start time is determined based on a relative clock skew, the relative clock skew being calculated directly between the first user media terminal and the second user media terminal .
An automatic portable inspection system, comprising: a part holder for holding a component to be inspected; a rotary actuator coupled to the part holder , wherein said rotary actuator provides rotation of the component; an eddy current probe for scanning the component and providing a plurality of eddy current signals; a self-alignment unit coupled to the eddy current probe , the self-alignment unit comprising a casing for the probe ; a plurality of pins to extend from the casing to the surface of the component; and a spring disposed between the casing and one end of the probe , wherein another end of the probe is arranged to engage the surface of the component; wherein said self-alignment unit is configured to align an axis of the eddy current probe substantially perpendicular to a surface of the component and to maintain constant contact with said surface of the component during scanning; a linear actuator coupled to the self-alignment unit , wherein the linear actuator provides movement of the eddy current probe along the X, Y and Z axes; and a motion control unit coupled to the rotary actuator and the linear actuator , wherein said motion control unit controls the rotary actuator and the linear actuator for moving said eddy current probe about the component in accordance with a scan plan. a part holder for holding a component to be inspected; a rotary actuator coupled to the part holder , wherein said rotary actuator provides rotation of the component; an eddy current probe for scanning the component and providing a plurality of eddy current signals; a self-alignment unit coupled to the eddy current probe , the self-alignment unit comprising a casing for the probe ; a plurality of pins to extend from the casing to the surface of the component; and a spring disposed between the casing and one end of the probe , wherein another end of the probe is arranged to engage the surface of the component; wherein said self-alignment unit is configured to align an axis of the eddy current probe substantially perpendicular to a surface of the component and to maintain constant contact with said surface of the component during scanning; a linear actuator coupled to the self-alignment unit , wherein the linear actuator provides movement of the eddy current probe along the X, Y and Z axes; and a motion control unit coupled to the rotary actuator and the linear actuator , wherein said motion control unit controls the rotary actuator and the linear actuator for moving said eddy current probe about the component in accordance with a scan plan.
A vane for a gas turbine system, comprising: an internal cavity configured to receive a flow of cooling fluid; a variable thickness wall adjacent the internal cavity ; and an impingement plate separating the variable thickness wall from the internal cavity , the impingement plate including a plurality of apertures for directing the cooling fluid into an impingement cavity and against the variable thickness wall , wherein the impingement plate is configured to follow a contour of the variable thickness wall ; characterized in that the impingement plate has a variable thickness (T IP ), wherein the thickness (T IP ) of each section of the impingement plate is inversely proportional to a thickness (Tw) of an adjacent section of the variable thickness wall such that the impingement plate is thicker adjacent a thinner section of the variable thickness wall and thinner adjacent a thicker section of the variable thickness wall . an internal cavity configured to receive a flow of cooling fluid; a variable thickness wall adjacent the internal cavity ; and an impingement plate separating the variable thickness wall from the internal cavity , the impingement plate including a plurality of apertures for directing the cooling fluid into an impingement cavity and against the variable thickness wall , wherein the impingement plate is configured to follow a contour of the variable thickness wall ; characterized in that the impingement plate has a variable thickness (T IP ), wherein the thickness (T IP ) of each section of the impingement plate is inversely proportional to a thickness (Tw) of an adjacent section of the variable thickness wall such that the impingement plate is thicker adjacent a thinner section of the variable thickness wall and thinner adjacent a thicker section of the variable thickness wall .
A cleaning system comprising: a robot cleaner including: a dust collecting device having an outlet , and an outlet door configured to open and close the outlet and having a door magnetic body ; and a station including: a collecting chamber , a lever device including: a lever having a lever magnetic body and configured to open the outlet door to allow the collecting chamber and the dust collecting device to communicate with each other while the outlet door to the outlet of the dust collecting device is open due to a magnetic force between the door magnetic body of the outlet door and the lever magnetic body of the lever, and a lever driving source configured to generate power to drive the lever, and a station suction device configured to generate a suction force so that dust in the dust collecting device is accommodated in the collecting chamber . a robot cleaner including: a dust collecting device having an outlet , and an outlet door configured to open and close the outlet and having a door magnetic body ; and a dust collecting device having an outlet , and an outlet door configured to open and close the outlet and having a door magnetic body ; and a station including: a collecting chamber , a lever device including: a lever having a lever magnetic body and configured to open the outlet door to allow the collecting chamber and the dust collecting device to communicate with each other while the outlet door to the outlet of the dust collecting device is open due to a magnetic force between the door magnetic body of the outlet door and the lever magnetic body of the lever, and a lever driving source configured to generate power to drive the lever, and a station suction device configured to generate a suction force so that dust in the dust collecting device is accommodated in the collecting chamber . a collecting chamber , a lever device including: a lever having a lever magnetic body and configured to open the outlet door to allow the collecting chamber and the dust collecting device to communicate with each other while the outlet door to the outlet of the dust collecting device is open due to a magnetic force between the door magnetic body of the outlet door and the lever magnetic body of the lever, and a lever driving source configured to generate power to drive the lever, and a station suction device configured to generate a suction force so that dust in the dust collecting device is accommodated in the collecting chamber . a lever having a lever magnetic body and configured to open the outlet door to allow the collecting chamber and the dust collecting device to communicate with each other while the outlet door to the outlet of the dust collecting device is open due to a magnetic force between the door magnetic body of the outlet door and the lever magnetic body of the lever, and a lever driving source configured to generate power to drive the lever, and a station suction device configured to generate a suction force so that dust in the dust collecting device is accommodated in the collecting chamber .
A probe adapter, comprising: an adapter body comprising a probe aperture and a slot ; characterised by a driver slidably mounted within the slot and slidable between a first position and a second position substantially withdrawn from the probe aperture , the driver comprising a first end and a second end opposite the first end , the first end comprising a ramped recess extending in a direction from the first end toward the second end ; and a threaded fastener configured to contact the second end of the driver so as to retain the driver in the first position; wherein, in the first position, the driver is configured to retain a probe assembly of a probe within the probe aperture and, in the second position, the driver is configured to permit removal of the probe assembly from the probe aperture . an adapter body comprising a probe aperture and a slot ; characterised by a driver slidably mounted within the slot and slidable between a first position and a second position substantially withdrawn from the probe aperture , the driver comprising a first end and a second end opposite the first end , the first end comprising a ramped recess extending in a direction from the first end toward the second end ; and a threaded fastener configured to contact the second end of the driver so as to retain the driver in the first position; wherein, in the first position, the driver is configured to retain a probe assembly of a probe within the probe aperture and, in the second position, the driver is configured to permit removal of the probe assembly from the probe aperture .
A lid for a fluid canister for a negative-pressure treatment system, the lid comprising: a rim configured to sealingly engage the fluid canister ; a regulator comprising a regulator chamber , a first passage fluidly coupled to the regulator chamber , a second passage fluidly coupled to the regulator chamber , and a regulator valve configured to regulate fluid flow through the first passage based on changes to negative pressure in the regulator chamber ; a downstream connector fluidly coupled to the first passage and configured to be fluidly coupled to a primary negative-pressure source; a check valve coupled to the downstream connector ; and an upstream connector fluidly coupled to the second passage characterized by the lid further comprising a secondary negative-pressure source comprising a membrane defining a negative-pressure chamber fluidly coupled to the downstream connector and to the first passage ; and one or more springs configured to bias the membrane to a discharged position . a rim configured to sealingly engage the fluid canister ; a regulator comprising a regulator chamber , a first passage fluidly coupled to the regulator chamber , a second passage fluidly coupled to the regulator chamber , and a regulator valve configured to regulate fluid flow through the first passage based on changes to negative pressure in the regulator chamber ; a downstream connector fluidly coupled to the first passage and configured to be fluidly coupled to a primary negative-pressure source; a check valve coupled to the downstream connector ; and an upstream connector fluidly coupled to the second passage characterized by the lid further comprising a secondary negative-pressure source comprising a membrane defining a negative-pressure chamber fluidly coupled to the downstream connector and to the first passage ; and one or more springs configured to bias the membrane to a discharged position . the lid further comprising a secondary negative-pressure source comprising a membrane defining a negative-pressure chamber fluidly coupled to the downstream connector and to the first passage ; and one or more springs configured to bias the membrane to a discharged position .
A vertebral fixing system , comprising: a rod , a flexible elongated member having a first portion , a second portion , and an intermediate portion extending between the first portion and the second portion; a connecting part , wherein the flexible elongated member is connected to the connecting part ; a tightening part engaging the flexible elongated member , wherein the tightening part is configured to secure the flexible elongated member with respect to the connecting part ; and wherein the first portion of the flexible elongated member and the second portion of the flexible elongated member are configured to be engaged with bone and the intermediate portion of the flexible elongate member is configured to be inserted into the tightening part , characterised in that the tightening part includes a housing , and a worm gear having a geared portion and a receiving portion , a worm drive having a screw , and a rod locking screw , wherein the screw and the rod locking screw extend from the same side of the housing . a rod , a flexible elongated member having a first portion , a second portion , and an intermediate portion extending between the first portion and the second portion; a connecting part , wherein the flexible elongated member is connected to the connecting part ; a tightening part engaging the flexible elongated member , wherein the tightening part is configured to secure the flexible elongated member with respect to the connecting part ; and wherein the first portion of the flexible elongated member and the second portion of the flexible elongated member are configured to be engaged with bone and the intermediate portion of the flexible elongate member is configured to be inserted into the tightening part , characterised in that the tightening part includes a housing , and a worm gear having a geared portion and a receiving portion , a worm drive having a screw , and a rod locking screw , wherein the screw and the rod locking screw extend from the same side of the housing .
A cryopanel array comprising an array of spaced flat discs , each of the discs carrying adsorbant on both disc surfaces, characterized in that the discs fan to define a generally ball-shaped envelope.
A composition for 3D printing comprising: a build material comprising at least one polymer and at least one first electron donor compound; and a fusing agent comprising (i) a metal bis(dithiolene) complex, (ii) at least one surfactant, at least one second electron donor compound, or combinations thereof, (iii) a polar aprotic solvent, and (iv) water, wherein the at least one first electron donor compound and the at least one second electron donor compound are the same or different, and wherein the metal bis(dithiolene) complex has a general formula I wherein: M is a metal selected from the group consisting of nickel, zinc, platinum, palladium, and molybdenum; and each of W, X, Y, and Z is selected from the group consisting of H, Ph, PhR, and SR, wherein Ph is a phenyl group and R is selected from the group consisting of C n H 2n+1 , OC n H 2n+1 , and N(CH 3 ) 2 , wherein 2 ≤ n ≤ 12. a build material comprising at least one polymer and at least one first electron donor compound; and a fusing agent comprising (i) a metal bis(dithiolene) complex, (ii) at least one surfactant, at least one second electron donor compound, or combinations thereof, (iii) a polar aprotic solvent, and (iv) water, wherein the at least one first electron donor compound and the at least one second electron donor compound are the same or different, and wherein the metal bis(dithiolene) complex has a general formula I wherein: M is a metal selected from the group consisting of nickel, zinc, platinum, palladium, and molybdenum; and each of W, X, Y, and Z is selected from the group consisting of H, Ph, PhR, and SR, wherein Ph is a phenyl group and R is selected from the group consisting of C n H 2n+1 , OC n H 2n+1 , and N(CH 3 ) 2 , wherein 2 ≤ n ≤ 12. M is a metal selected from the group consisting of nickel, zinc, platinum, palladium, and molybdenum; and each of W, X, Y, and Z is selected from the group consisting of H, Ph, PhR, and SR, wherein Ph is a phenyl group and R is selected from the group consisting of C n H 2n+1 , OC n H 2n+1 , and N(CH 3 ) 2 , wherein 2 ≤ n ≤ 12.
A storage container for storing food and beverages in aircrafts, to be placed inside a Trolley, said storage container being formed of - at least two separate, well heat-insulating frame components that can be connected to each other, which comprise means for implementing a tight connection, and - a lid component , using which the container can be sealed and which comprises ∘ a temperature measurement system for measuring the temperature that has been joined to the lid component by embedding or attaching, wherein ∘ the temperature measurement system comprises ▪ a measurement device attached or embedded into the lid component , ▪ a hole with a diameter of 5 - 7 mm for the measurement device , ▪ a mortise carved inside the lid component , and ▪ a temperature sensor , which has been placed into the mortise . - at least two separate, well heat-insulating frame components that can be connected to each other, which comprise means for implementing a tight connection, and - a lid component , using which the container can be sealed and which comprises ∘ a temperature measurement system for measuring the temperature that has been joined to the lid component by embedding or attaching, wherein ∘ the temperature measurement system comprises ▪ a measurement device attached or embedded into the lid component , ▪ a hole with a diameter of 5 - 7 mm for the measurement device , ▪ a mortise carved inside the lid component , and ▪ a temperature sensor , which has been placed into the mortise . ∘ a temperature measurement system for measuring the temperature that has been joined to the lid component by embedding or attaching, wherein ∘ the temperature measurement system comprises ▪ a measurement device attached or embedded into the lid component , ▪ a hole with a diameter of 5 - 7 mm for the measurement device , ▪ a mortise carved inside the lid component , and ▪ a temperature sensor , which has been placed into the mortise . ▪ a measurement device attached or embedded into the lid component , ▪ a hole with a diameter of 5 - 7 mm for the measurement device , ▪ a mortise carved inside the lid component , and ▪ a temperature sensor , which has been placed into the mortise .
Method for a first base station operating with a cellular network , covering a first cell area and being connectively coupled to a second base station supporting beamforming, covering a second cell area , said first and second cell area overlapping, wherein a plurality of user equipments is located in said first cell area , the method comprising the steps of: - sending a message representative of an instruction to perform at least one automatic neighbor relation measurement to at least one of the plurality of user equipments located in said first cell area, - receiving at least one automatic neighbor relation message from said at least one user equipment of the plurality of user equipments located in said first cell area , - omitting said at least one user equipment of the plurality of user equipments located in said first cell area from further considering for further automatic neighbor relation evaluation, in case said automatic neighbor relation message indicates that said user equipment of the plurality of user equipments located in said first cell area is located outside of the second cell area . - sending a message representative of an instruction to perform at least one automatic neighbor relation measurement to at least one of the plurality of user equipments located in said first cell area, - receiving at least one automatic neighbor relation message from said at least one user equipment of the plurality of user equipments located in said first cell area , - omitting said at least one user equipment of the plurality of user equipments located in said first cell area from further considering for further automatic neighbor relation evaluation, in case said automatic neighbor relation message indicates that said user equipment of the plurality of user equipments located in said first cell area is located outside of the second cell area .
A method comprising: receiving data characterizing a plurality of operating parameters associated with an industrial machine; receiving data characterizing a plurality of encrypted times; identifying a first encrypted time from the plurality of encrypted times based on temporal location of the first encrypted time relative to a first system time of a plurality of system time, wherein a first operating parameter of the plurality of operating parameters is received at the first system time; generating an operating data set comprising at least the first operating parameter and a new encrypted time based at least on the first encrypted time, wherein the new encrypted time is tagged to the first operating parameter; and providing the operating data set. receiving data characterizing a plurality of operating parameters associated with an industrial machine; receiving data characterizing a plurality of encrypted times; identifying a first encrypted time from the plurality of encrypted times based on temporal location of the first encrypted time relative to a first system time of a plurality of system time, wherein a first operating parameter of the plurality of operating parameters is received at the first system time; generating an operating data set comprising at least the first operating parameter and a new encrypted time based at least on the first encrypted time, wherein the new encrypted time is tagged to the first operating parameter; and providing the operating data set.
Sildenafil for use in the treatment of osteoarthritis in humans, horse, dog or cat, where sildenafil is administered together with a local anaesthetic of the amino amide type and glucose.