mhurhangee/ep-ind-claims huggingface dataset:
An access assembly for insertion through tissue, the access assembly comprising: a flexible housing having a proximal end and a distal end, the housing defining a longitudinal passageway extending from the proximal end to the distal end; and a seal assembly defining a plurality of ports (16, 18, 20) each configured to receive an instrument inserted therethrough in a sealing manner; characterized in that: the housing includes a groove formed in an inner surface of the housing; the seal assembly is received within the groove formed in the inner surface of the housing; and the seal assembly includes first and second sealing layers (15, 17) defining the plurality of ports (16, 18, 20). a flexible housing having a proximal end and a distal end, the housing defining a longitudinal passageway extending from the proximal end to the distal end; and a seal assembly defining a plurality of ports (16, 18, 20) each configured to receive an instrument inserted therethrough in a sealing manner; the housing includes a groove formed in an inner surface of the housing; the seal assembly is received within the groove formed in the inner surface of the housing; and the seal assembly includes first and second sealing layers (15, 17) defining the plurality of ports (16, 18, 20).
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers of reinforcing elements (41, 43), a layer of rubber compound being arranged between at least the ends of said at least two working crown layers (41, 43), said crown reinforcement being capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, the distance d between the end of the axially narrowest working layer and the working layer separated from the axially narrowest working layer by the layer of rubber compound being such that 1.10 < d < 2.2ø, ø being the diameter of the reinforcing elements of said at least one layer of circumferential reinforcing elements, in a meridian plane, and the thickness of the layer of rubber compound being substantially constant over the axial width between the axially inner end of the layer and the end of the axially narrowest working layer, characterized in that said tread is constituted of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, at least one longitudinally-oriented cut, in that the depth, measured on a new tyre in at least said central part, of said at least one longitudinally-oriented cut is greater than or equal to 40% of the thickness of the tread, and in that the ratio of the width (D f) measured at the bottom of said at least one longitudinally-oriented cut to the width (d S) measured at the surface of the tread on a new tyre of said at least one longitudinally-oriented cut is greater than 2.
Drive control method for a vertical roller mill having a grinding table rotatable about the vertical, wherein the grinding table can be driven by a drive train comprising an electric motor and a gearbox, wherein a measured value characteristic resulting from vibration-relevant measured values is monitored for the occurrence of a predefined pattern in the measured value characteristic and wherein in the event of a pattern being identified in the measured value characteristic, the rotation speed of the grinding table is automatically increased or reduced by a predefined or predefinable adjustment value.
A component formed using an additive manufacturing system, said component comprising: an exterior surface; an interior cavity; at least one powder removal device disposed within said interior cavity and adjacent to said exterior surface, wherein said at least one powder removal device is configured to remove un-sintered and partially sintered powder from said component; and at least one exit port defined in said exterior surface to facilitate egress of the un-sintered and partially sintered powder out of said component; characterised in that said at least one powder removal device is tethered to an adjacent surface of said component, said at least one powder removal device configured to detach from said adjacent surface when vibrated. an exterior surface; an interior cavity; at least one powder removal device disposed within said interior cavity and adjacent to said exterior surface, wherein said at least one powder removal device is configured to remove un-sintered and partially sintered powder from said component; and at least one exit port defined in said exterior surface to facilitate egress of the un-sintered and partially sintered powder out of said component; characterised in that said at least one powder removal device is tethered to an adjacent surface of said component, said at least one powder removal device configured to detach from said adjacent surface when vibrated.
A device for executing a Remote Direct Memory Access, RDMA, operation in a memory, wherein the device is configured to: receive a packet including a first destination address, a destination key, one or more first offset addresses, and one or more offset keys, wherein the first destination address is a virtual address of a virtual memory of the device; obtain one or more offset values based on the one or more first offset addresses and the one or more offset keys; obtain a second destination address based on the first destination address, the destination key, and the one or more offset values; and initiate the RDMA operation in the memory based on the second destination address. receive a packet including a first destination address, a destination key, one or more first offset addresses, and one or more offset keys, wherein the first destination address is a virtual address of a virtual memory of the device; obtain one or more offset values based on the one or more first offset addresses and the one or more offset keys; obtain a second destination address based on the first destination address, the destination key, and the one or more offset values; and initiate the RDMA operation in the memory based on the second destination address.
A method of analysing heavy minerals in a sample of quartz crystal powder, comprising the steps of: a. conditioning the quartz powder suspected of containing heavy mineral particles as an aqueous pulp using a froth-flotation agent; b. subjecting the conditioned pulp to froth flotation to obtain a tailing; c. combining the tailing with an aqueous solution having a density greater than that of quartz and less than that of a heavy mineral which it is desired to separate; d. centrifuging the combination; and e. characterising the separated heavy mineral crystals using a micro-analysis technique. a. conditioning the quartz powder suspected of containing heavy mineral particles as an aqueous pulp using a froth-flotation agent; b. subjecting the conditioned pulp to froth flotation to obtain a tailing; c. combining the tailing with an aqueous solution having a density greater than that of quartz and less than that of a heavy mineral which it is desired to separate; d. centrifuging the combination; and e. characterising the separated heavy mineral crystals using a micro-analysis technique.
An ink jet recording apparatus comprising: a carriage that can be reciprocated in a main scanning direction; ink ejection means (5a-5f) mounted on the carriage and including a plurality of ink nozzles which eject ultraviolet-ray curable inks on a recording medium and are arranged so as to extend in a sub-scanning direction; ultraviolet-ray irradiation means mounted on the carriage and arranged so as to extend in a sub-scanning direction, for irradiating the recording medium with ultraviolet rays, the ultraviolet-ray irradiation means is disposed on either or both sides of rear sides of the ink ejection means (5a-5f) in the main scanning direction and a control unit that controls the ink ejection means and the ultraviolet-ray irradiation means, wherein the carriage or the recording medium is moved in the sub-scanning direction perpendicular to the main scanning direction, the ink jet recording apparatus further includes air sucking means for sucking air on the recording medium side or blowing means for blowing a gas toward the recording medium side, characterized in that: the ink nozzles are divided into a plurality of pass areas(A1, A2), each of which is further divided to a plurality of ejection areas (A1-a to A2-b), each said ejection area can record oneband on the recording medium, the ultraviolet-ray irradiation means includes a plurality of light sources applying ultraviolet rays, the ultraviolet-ray irradiation means being divided into a plurality of areas so as that each area corresponds respectively to each ejection area of the ink nozzle in the sub-scanning direction, and the control unit controls turning-on and turning-off of the light source for each area of the ultraviolet-ray irradiation means. a carriage that can be reciprocated in a main scanning direction; ink ejection means (5a-5f) mounted on the carriage and including a plurality of ink nozzles which eject ultraviolet-ray curable inks on a recording medium and are arranged so as to extend in a sub-scanning direction; ultraviolet-ray irradiation means mounted on the carriage and arranged so as to extend in a sub-scanning direction, for irradiating the recording medium with ultraviolet rays, the ultraviolet-ray irradiation means is disposed on either or both sides of rear sides of the ink ejection means (5a-5f) in the main scanning direction and a control unit that controls the ink ejection means and the ultraviolet-ray irradiation means, wherein
A touch driving device, in which one frame is time-divided into at least one touch driving period and a display driving period and which is configured to operate in the at least one touch driving period, wherein the touch driving device is configured to generate a touch driving signal during the touch driving period, apply the touch driving signal to a touch screen, sense a first pen driving signal applied to the touch screen from a stylus pen in a first period of the touch driving period, and sense a second pen driving signal applied to the touch screen from the stylus pen in a second period of the touch driving period, wherein the first pen driving signal and the second pen driving signal are synchronized with the touch driving signal, wherein the first pen driving signal is used to detect an active stylus pen touch input, and the second pen driving signal is used to detect an additional input related to an additional function of the stylus pen and wherein the second pen driving signal has three states so as to increase a transmission amount of information about the additional input, each of the three states represented by a respective one of: a first state signal ("0"), including a plurality of pulses having a same phase as the touch driving signal; a second state signal ("1") including a plurality of pulses having a phase opposite the touch driving signal; and a third state signal ("Passive") corresponding to a passive state of the second pen driving signal. wherein the touch driving device is configured to generate a touch driving signal during the touch driving period, apply the touch driving signal to a touch screen, sense a first pen driving signal applied to the touch screen from a stylus pen in a first period of the touch driving period, and sense a second pen driving signal applied to the touch screen from the stylus pen in a second period of the touch driving period, wherein the first pen driving signal and the second pen driving signal are synchronized with the touch driving signal, wherein the first pen driving signal is used to detect an active stylus pen touch input, and the second pen driving signal is used to detect an additional input related to an additional function of the stylus pen and wherein the second pen driving signal has three states so as to increase a transmission amount of information about the additional input, each of the three states represented by a respective one of: a first state signal ("0"), including a plurality of pulses having a same phase as the touch driving signal; a second state signal ("1") including a plurality of pulses having a phase opposite the touch driving signal; and a third state signal ("Passive") corresponding to a passive state of the second pen driving signal. a first state signal ("0"), including a plurality of pulses having a same phase as the touch driving signal; a second state signal ("1") including a plurality of pulses having a phase opposite the touch driving signal; and a third state signal ("Passive") corresponding to a passive state of the second pen driving signal.
A method performed by a network node for handling monitoring of applications and/or services in a communication network, wherein the network node is implemented in a cloud system, the method comprising: - obtaining an indication associated with a monitoring session to monitor a metric of a service and/or application; - obtaining a location of deployment of the service and/or application, wherein the location is a virtual machine or container; characterized by - identifying one or more ongoing monitoring sessions for monitoring one or more metrics based on the metric associated with the indication and the location of deployment of the application or service; - selecting a monitoring process based on the identification; and - triggering the selected monitoring process. - obtaining an indication associated with a monitoring session to monitor a metric of a service and/or application; - obtaining a location of deployment of the service and/or application, wherein the location is a virtual machine or container; characterized by - identifying one or more ongoing monitoring sessions for monitoring one or more metrics based on the metric associated with the indication and the location of deployment of the application or service; - selecting a monitoring process based on the identification; and - triggering the selected monitoring process.
Radial roller bearing, in particular cylindrical roller bearing or needle bearing, substantially consisting of a smooth cylindrical outer ring which is inserted into a housing and of a roller crown ring which is arranged in the said outer ring and is formed by a multiplicity of roller-shaped rolling bodies which are inserted into a bearing cage, are held at uniform spacings in the circumferential direction by the latter, and roll on an outer raceway which is formed by the inner circumferential face of the outer ring and on an inner raceway which is formed by the outer circumferential face of a shaft to be mounted or of a smooth cylindrical inner ring which is pushed onto the shaft, the axial guidance of the roller crown ring being effected by way of two separate flanged discs (15, 16) which bear against the axial sides (13, 14) of the outer ring and, together with the outer ring, are fixed axially by way of securing elements (19, 20) which engage into circumferential grooves (17, 18) in the housing, characterized in that the securing elements (19, 20) for the flanged discs (15, 16) and for the outer ring and the flanged discs (15, 16) are configured in each case as a structural unit, in which they are connected fixedly to one another.
Coil comprising: a multi-part conductor having an extension being long in relation to its cross-section, the multi-part conductor comprising two or more conductors (A,B) having equal cross-section, which two or more conductors are electrically insulated from each other, wherein, in a cross-section of the multi-part conductor, said two or more conductors (A,B) are arranged adjacent to each other in the direction of a central axis of the coil, wherein said multi-part conductor is wound around the central axis in more than one circumferential turn, such that a first portion of the multi-part conductor is arranged adjacent to a second portion of the multi-part conductor in the direction of the central axis, and wherein said adjacent arrangement of said two or more conductors (A,B) is the same in relation to each other and in relation to the direction of a central axis of the coil for each circumferential turn, characterized in that said multi-part conductor is wound around the central axis such that a distance between the central axis and the multi-part conductor in a first circumferential turn is larger than a distance between the central axis and the multi-part conductor in a second circumferential turn. a multi-part conductor having an extension being long in relation to its cross-section, the multi-part conductor comprising two or more conductors (A,B) having equal cross-section, which two or more conductors are electrically insulated from each other, wherein, in a cross-section of the multi-part conductor, said two or more conductors (A,B) are arranged adjacent to each other in the direction of a central axis of the coil, wherein said multi-part conductor is wound around the central axis in more than one circumferential turn, such that a first portion of the multi-part conductor is arranged adjacent to a second portion of the multi-part conductor in the direction of the central axis, and wherein said adjacent arrangement of said two or more conductors (A,B) is the same in relation to each other and in relation to the direction of a central axis of the coil for each circumferential turn, characterized in that said multi-part conductor is wound around the central axis such that a distance between the central axis and the multi-part conductor in a first circumferential turn is larger than a distance between the central axis and the multi-part conductor in a second circumferential turn.
A subsea fluid processing machine configured to process a multiphase subsea process fluid, the machine comprising: a stationary machine body configured for deployment in a subsea location; a multiphase fluid inlet and a multiphase fluid outlet, each formed at least partially within said machine body; at least one rotating member (302, 306, 308) configured to rotate about a vertically-oriented central axis thereby inducing a pressure differential of said multiphase process fluid between said inlet and outlet, and imparting a reactionary force on said rotating member (302, 306, 308) in a downwards direction; a rotating balance piston member in a fixed relationship with the rotating member (302, 306, 308) including a first lower surface area exposed to a first volume of said multiphase process fluid and a second upper surface area exposed to a second volume of said multiphase process fluid, the first and second volumes (314, 330) configured such that while the rotating member (302, 306, 308) is rotating, fluid pressure in said first volume is higher than in said second volume, thereby imparting a force on said rotating member (302, 306, 308) in an upwards direction; and a balance piston fluid channel defined by an outer surface of said rotating balance piston member and an inner stationary surface in a fixed relationship with said stationary machine body, said balance piston fluid channel having a channel inlet to said first volume and a channel outlet to said second volume. a stationary machine body configured for deployment in a subsea location; a multiphase fluid inlet and a multiphase fluid outlet, each formed at least partially within said machine body; at least one rotating member (302, 306, 308) configured to rotate about a vertically-oriented central axis thereby inducing a pressure differential of said multiphase process fluid between said inlet and outlet, and imparting a reactionary force on said rotating member (302, 306, 308) in a downwards direction; a rotating balance piston member in a fixed relationship with the rotating member (302, 306, 308) including a first lower surface area exposed to a first volume of said multiphase process fluid and a second upper surface area exposed to a second volume of said multiphase process fluid, the first and second volumes (314, 330) configured such that while the rotating member (302, 306, 308) is rotating, fluid pressure in said first volume is higher than in said second volume, thereby imparting a force on said rotating member (302, 306, 308) in an upwards direction; and a balance piston fluid channel defined by an outer surface of said rotating balance piston member and an inner stationary surface in a fixed relationship with said stationary machine body, said balance piston fluid channel having a channel inlet to said first volume and a channel outlet to said second volume.
A paging message transmission method, comprising: determining indication information comprised in a first paging message, wherein the indication information indicates whether a second paging message exists; sending the first paging message comprising the indication information, wherein the first paging message is comprised in a first transport block; and generating and sending the second paging message if the indication information indicates that the second paging message exists, wherein the second paging message is comprised in a second transport block, and the second transport block and the first transport block are different transport blocks that are separately transmitted. determining indication information comprised in a first paging message, wherein the indication information indicates whether a second paging message exists; sending the first paging message comprising the indication information, wherein the first paging message is comprised in a first transport block; and generating and sending the second paging message if the indication information indicates that the second paging message exists, wherein the second paging message is comprised in a second transport block, and the second transport block and the first transport block are different transport blocks that are separately transmitted.