mhurhangee/ep-ind-claims huggingface dataset:
A method for avoiding resource being released mistakenly during handover process, comprising: A. determining, by a target Mobility Management Entity, whether to use an old System Architecture Evolution Serving Gateway or reselect a new Serving Gateway; B. if the target Mobility Management Entity determines to select a new Serving Gateway, the target Mobility Management Entity sends a notification message to the original Mobility Management Entity to indicate that the target Mobility Management Entity has selected a new Serving Gateway, the original Mobility Management Entity sending a request for deleting a bearer context to an old Serving Gateway characterized in that, if the target Mobility Management Entity determines to use the old Serving GW, the target Mobility Management Entity will not send the notification message to the original Mobility Management Entity, and the original Mobility Management Entity will not request the old Serving GW to delete the bearer context, so that the old Serving GW will not release a subscriber resource. A. determining, by a target Mobility Management Entity, whether to use an old System Architecture Evolution Serving Gateway or reselect a new Serving Gateway; B. if the target Mobility Management Entity determines to select a new Serving Gateway, the target Mobility Management Entity sends a notification message to the original Mobility Management Entity to indicate that the target Mobility Management Entity has selected a new Serving Gateway, the original Mobility Management Entity sending a request for deleting a bearer context to an old Serving Gateway
A bandwidth information notification method, comprising: detecting, by a network node that is attached by a microwave link, a current modulation mode of the microwave link; obtaining, by the network node, a current bandwidth value of the microwave link in the current modulation mode, wherein in each modulation mode the bandwidth of the microwave link is determinate; sending, by the network node, the current bandwidth value of the microwave link to an endpoint of a service connection through the service connection which passes through the microwave link; receiving, by the endpoint of the service connection, the current bandwidth value of the microwave link; determining, by the endpoint of the service connection, a service policy for the service connection corresponding to the current bandwidth value of the microwave link according to a preset corresponding relationship between current bandwidth value of the microwave link and a service policy for the service connection; and performing service processing, by the endpoint of the service connection, according to the service policy for the service connection corresponding to the current bandwidth value of the microwave link. detecting, by a network node that is attached by a microwave link, a current modulation mode of the microwave link; obtaining, by the network node, a current bandwidth value of the microwave link in the current modulation mode, wherein in each modulation mode the bandwidth of the microwave link is determinate; sending, by the network node, the current bandwidth value of the microwave link to an endpoint of a service connection through the service connection which passes through the microwave link; receiving, by the endpoint of the service connection, the current bandwidth value of the microwave link; determining, by the endpoint of the service connection, a service policy for the service connection corresponding to the current bandwidth value of the microwave link according to a preset corresponding relationship between current bandwidth value of the microwave link and a service policy for the service connection; and performing service processing, by the endpoint of the service connection, according to the service policy for the service connection corresponding to the current bandwidth value of the microwave link.
Method for controlling the start of a vehicle equipped with an engine standby system, this method comprising: • the actuation of starting the vehicle, • the indication of an autonomous engine state in response to the simultaneous presence of an injection of fuel into the combustion chambers of the heat engine and of a speed of the heat engine greater than a predefined threshold S1, the threshold S1 being equal to an engine speed that cannot be reached without combustion in the combustion chambers when the vehicle is started, and • in response to the indication of the autonomous engine state, the control of the closing of a clutch according to a predefined engine speed setpoint to slave the engine speed to this predefined setpoint, the clutch making it possible to mechanically coupling the drive wheels of the vehicle to a crankshaft output shaft of the engine, characterized in that the method also comprises: • the delay of the implementation of a hill start assistance device until the end of a duration T1 elapsed since the indication of the independent engine state, the duration T1 being predefined so that once the time delay has elapsed, if a braking system is released, the engine torque is high enough to cause the vehicle to move only in forward gear without any backward movement, • the transmission of an available torque signal once the duration T1 has elapsed, and • the control of the hill start assist device in response to the emission of this signal to release the braking system. • the actuation of starting the vehicle, • the indication of an autonomous engine state in response to the simultaneous presence of an injection of fuel into the combustion chambers of the heat engine and of a speed of the heat engine greater than a predefined threshold S1, the threshold S1 being equal to an engine speed that cannot be reached without combustion in the combustion chambers when the vehicle is started, and • in response to the indication of the autonomous engine state, the control of the closing of a clutch according to a predefined engine speed setpoint to slave the engine speed to this predefined setpoint, the clutch making it possible to mechanically coupling the drive wheels of the vehicle to a crankshaft output shaft of the engine, • the delay of the implementation of a hill start assistance device until the end of a duration T1 elapsed since the indication of the independent engine state, the duration T1 being predefined so that once the time delay has elapsed, if a braking system is released, the engine torque is high enough to cause the vehicle to move only in forward gear without any backward movement, • the transmission of an available torque signal once the duration T1 has elapsed, and • the control of the hill start assist device in response to the emission of this signal to release the braking system.
A surface coated cutting tool comprising: a tool substrate; and a hard coating layer on the tool substrate; the hard coating layer comprising, in sequence from the tool substrate toward a surface of the tool, an inner layer, a lower intermediate layer, an upper intermediate layer, a bonding auxiliary layer, and outer layer, wherein the inner layer comprises titanium carbonitride and has an average thickness in the range of 4.0 to 20.0 μm, the lower intermediate layer comprises titanium nitride and has an average thickness in the range of 0.1 to 2.0 μm, the upper intermediate layer comprises titanium carbonitride and has an average thickness in the range of 0.1 to 2.5 μm, titanium nitride grain boundaries in the lower intermediate layer and titanium carbonitride grain boundaries in the upper intermediate layer are continuous from titanium carbonitride grain boundaries in the inner layer, the bonding auxiliary layer comprises titanium oxycarbonitride and has an average thickness in the range of 3 to 80 nm, the outer layer comprises α-aluminum oxide and has an average thickness in the range of 2.0 to 20.0 μm, the texture coefficient TC of titanium carbonitride in the inner layer and the upper intermediate layer is 3.0 or more, and the texture coefficient TC (0 0 12) of α-aluminum oxide in the outer layer is 5.0 or more. a tool substrate; and a hard coating layer on the tool substrate; the hard coating layer comprising, in sequence from the tool substrate toward a surface of the tool, an inner layer, a lower intermediate layer, an upper intermediate layer, a bonding auxiliary layer, and outer layer, wherein the inner layer comprises titanium carbonitride and has an average thickness in the range of 4.0 to 20.0 μm, the lower intermediate layer comprises titanium nitride and has an average thickness in the range of 0.1 to 2.0 μm, the upper intermediate layer comprises titanium carbonitride and has an average thickness in the range of 0.1 to 2.5 μm, titanium nitride grain boundaries in the lower intermediate layer and titanium carbonitride grain boundaries in the upper intermediate layer are continuous from titanium carbonitride grain boundaries in the inner layer, the bonding auxiliary layer comprises titanium oxycarbonitride and has an average thickness in the range of 3 to 80 nm, the outer layer comprises α-aluminum oxide and has an average thickness in the range of 2.0 to 20.0 μm, the texture coefficient TC of titanium carbonitride in the inner layer and the upper intermediate layer is 3.0 or more, and the texture coefficient TC (0 0 12) of α-aluminum oxide in the outer layer is 5.0 or more.
A burner comprising: a central oxidant nozzle defining a central axis of the burner; and a plurality of flame holders each having an axis spaced apart from the axis of the burner, characterized by each flame holder comprising: a high shape factor nozzle including a nozzle opening having a shape factor from 10 to 75, the shape factor being defined as the square of the nozzle perimeter divided by twice the nozzle cross-sectional area; and an annular nozzle surrounding the high shape factor nozzle; wherein the high shape factor nozzle is configured to be supplied with one of a fuel gas and an oxidizer gas, and the annular nozzle is configured to be supplied with the other of a fuel gas and an oxidizer gas, wherein the central oxidant nozzle comprises: a central oxidant staging nozzle; and an annular air nozzle surrounding the central staging nozzle and positioned radially inward from the flame holders. a central oxidant nozzle defining a central axis of the burner; and a plurality of flame holders each having an axis spaced apart from the axis of the burner, characterized by each flame holder comprising: a high shape factor nozzle including a nozzle opening having a shape factor from 10 to 75, the shape factor being defined as the square of the nozzle perimeter divided by twice the nozzle cross-sectional area; and an annular nozzle surrounding the high shape factor nozzle; a high shape factor nozzle including a nozzle opening having a shape factor from 10 to 75, the shape factor being defined as the square of the nozzle perimeter divided by twice the nozzle cross-sectional area; and an annular nozzle surrounding the high shape factor nozzle; wherein the high shape factor nozzle is configured to be supplied with one of a fuel gas and an oxidizer gas, and the annular nozzle is configured to be supplied with the other of a fuel gas and an oxidizer gas, a central oxidant staging nozzle; and an annular air nozzle surrounding the central staging nozzle and positioned radially inward from the flame holders.
Drive unit with a rotating saw blade arranged in a rotatable manner in a protective cover for the connection of a robot, composed of a housing (36, 38, 42) that can be connected to the robot, a shaft being mounted in said housing, via which the saw blade can be driven by interposing a gearbox (30, 31) being mounted in said housing, characterized in that the saw blade is held between two inner rings (3, 4), which are arranged on both sides of the saw blade and accommodate it and are firmly connected to one another and to said saw blade, and which are accommodated in a rotatable manner in non-rotating outer rings (8, 9) connected to the protective cover, and that the unit composed of the saw blade, the inner rings (3,4), coverplates (12, 13), the protective cover and the outer rings (8, 9) is fastened in a detachable manner onto a drive hub driven by the gear box (30, 31).
A semiconductor storage device comprising: a first memory area configured in a volatile semiconductor memory which performs writing of data by a first unit or less, the first unit being an access unit to the semiconductor storage device; second and third memory areas (12, 13) configured in a nonvolatile semiconductor memory which performs writing of data by a second unit and performs erasing of data by a third unit, the third unit being twice or larger natural number times as large as the second unit; and a controller executing: a first processing for storing a plurality of data by the first unit in the first memory area; characterized by a second processing for storing data outputted from the first memory area by a first management unit in the second memory area, the first management unit being twice or larger natural number times as large as the first unit and being less than the third unit; and a third processing for storing data outputted from the first memory area by a second management unit in the third memory area, the second management unit being twice or larger natural number times as large as the first management unit. a first memory area configured in a volatile semiconductor memory which performs writing of data by a first unit or less, the first unit being an access unit to the semiconductor storage device; second and third memory areas (12, 13) configured in a nonvolatile semiconductor memory which performs writing of data by a second unit and performs erasing of data by a third unit, the third unit being twice or larger natural number times as large as the second unit; and a controller executing: a first processing for storing a plurality of data by the first unit in the first memory area; characterized by a second processing for storing data outputted from the first memory area by a first management unit in the second memory area, the first management unit being twice or larger natural number times as large as the first unit and being less than the third unit; and a third processing for storing data outputted from the first memory area by a second management unit in the third memory area, the second management unit being twice or larger natural number times as large as the first management unit. a first processing for storing a plurality of data by the first unit in the first memory area; characterized by a second processing for storing data outputted from the first memory area by a first management unit in the second memory area, the first management unit being twice or larger natural number times as large as the first unit and being less than the third unit; and a third processing for storing data outputted from the first memory area by a second management unit in the third memory area, the second management unit being twice or larger natural number times as large as the first management unit.
A sabot comprising: a front scoop, wherein the front scoop comprises a first material structure and a third material structure a main body and an obturator both comprising a second material structure which is a solid; wherein the first material structure is a lattice, wherein the third material structure is a lattice, having a different density to the lattice of the first material structure, wherein the first material structure is disposed in a first region of the front scoop and the third material structure is disposed in a second region of the front scoop, wherein the first and second regions are disposed adjacent to one another and each extend from an inner rim of the front scoop to an outer rim of the front scoop, wherein a rib is arranged to separate the first region and second region. a front scoop, wherein the front scoop comprises a first material structure and a third material structure a main body and an obturator both comprising a second material structure which is a solid; wherein the first material structure is a lattice, wherein the third material structure is a lattice, having a different density to the lattice of the first material structure,
A wide area network "WAN" module, comprising: at least two radios (152, 154, 156), each radio configured to wirelessly transmit information; a power supply; an electronically controllable switch, said switch configured to selectively direct operating power from said power supply to only one of said at least two radios at any one time and selectively direct the WAN module to one of two or more device groups (302, 304); a controller, said controller configured to selectively operate said switch; and a universal serial bus "USB" interface coupled to said controller, whereby external commands may be sent to said controller by way of said USB interface so as to selectively control said switch. at least two radios (152, 154, 156), each radio configured to wirelessly transmit information; a power supply; an electronically controllable switch, said switch configured to selectively direct operating power from said power supply to only one of said at least two radios at any one time and selectively direct the WAN module to one of two or more device groups (302, 304); a controller, said controller configured to selectively operate said switch; and a universal serial bus "USB" interface coupled to said controller, whereby external commands may be sent to said controller by way of said USB interface so as to selectively control said switch.
An image-guided therapy delivery system, comprising: a therapy generator configured to generate a therapy beam directed to a time-varying therapy locus, within a therapy recipient, the therapy generator comprising a therapy output to direct the therapy beam according to a therapy protocol; an imaging input configured to receive imaging information about a time-varying target locus within the therapy recipient; and a therapy controller configured to: extract, from the imaging information, information indicative of a location of a feature, the feature corresponding to a first target locus; determine a phase of a cyclic motion model corresponding to the first target locus; estimate a change in the location of the feature at a later phase of the cyclic motion model corresponding to a scheduled time of upcoming therapy delivery; generate a second target locus by applying the estimated change in the location of the feature to the first target locus; and generate an updated therapy protocol to align the time-varying therapy locus with the second target locus. a therapy generator configured to generate a therapy beam directed to a time-varying therapy locus, within a therapy recipient, the therapy generator comprising a therapy output to direct the therapy beam according to a therapy protocol; an imaging input configured to receive imaging information about a time-varying target locus within the therapy recipient; and a therapy controller configured to: extract, from the imaging information, information indicative of a location of a feature, the feature corresponding to a first target locus; determine a phase of a cyclic motion model corresponding to the first target locus; estimate a change in the location of the feature at a later phase of the cyclic motion model corresponding to a scheduled time of upcoming therapy delivery; generate a second target locus by applying the estimated change in the location of the feature to the first target locus; and generate an updated therapy protocol to align the time-varying therapy locus with the second target locus. extract, from the imaging information, information indicative of a location of a feature, the feature corresponding to a first target locus; determine a phase of a cyclic motion model corresponding to the first target locus; estimate a change in the location of the feature at a later phase of the cyclic motion model corresponding to a scheduled time of upcoming therapy delivery; generate a second target locus by applying the estimated change in the location of the feature to the first target locus; and generate an updated therapy protocol to align the time-varying therapy locus with the second target locus.
An object tracking anti-jitter filtering system, comprising: at least one processor; a memory coupled with the at least one processor and configured to store raw location points of a tracked object; an averaging filter comprising machine-readable instructions stored within the memory that, when executed by the processor, generate an averaged location point with less jitter than the raw location points by averaging a number of raw location points within an averaging window; and, a speed-based points controller comprising machine-readable instructions stored within the memory that, when executed by the processor, incrementally increase the number of raw location points within the averaging window when a latest speed of the tracked object is less than a predefined low-speed threshold, and to incrementally decrease the number of raw location points within the averaging window when the latest speed of the tracked object is greater than a predefined high-speed threshold. at least one processor; a memory coupled with the at least one processor and configured to store raw location points of a tracked object; an averaging filter comprising machine-readable instructions stored within the memory that, when executed by the processor, generate an averaged location point with less jitter than the raw location points by averaging a number of raw location points within an averaging window; and, a speed-based points controller comprising machine-readable instructions stored within the memory that, when executed by the processor, incrementally increase the number of raw location points within the averaging window when a latest speed of the tracked object is less than a predefined low-speed threshold, and to incrementally decrease the number of raw location points within the averaging window when the latest speed of the tracked object is greater than a predefined high-speed threshold.
Vessel comprising a slewing seal arrangement for a propulsion unit comprising a hollow strut having an upper portion and a lower portion, a cylindrical upper end portion of the upper portion passing through a passage formed of a cylindrical first support wall extending from a first outer bottom towards a second inner bottom in the vessel, said upper end portion being rotatable, around an axis (Y-Y) of rotation, supported at a hull of the vessel with a slewing bearing and sealed against the hull of the vessel with a slewing seal comprising an upper slewing seal positioned below the slewing bearing in order to prevent lubrication medium leakage from the slewing bearing and a lower slewing seal positioned at a vertical distance below the upper slewing seal in order to prevent sea water from penetrating via the passage into the hull of the vessel, characterized in that: a first space is formed between the upper slewing seal and the lower slewing seal, the slewing bearing is supported at the second inner bottom of the vessel by a support structure (87, 88) extending between the slewing bearing and the second inner bottom, whereby access to said first space is provided in a radial direction from the interior of the vessel via spaces arranged in the support structure (87, 88) in order to be able to service the upper slewing seal and the lower slewing seal via said first space. a first space is formed between the upper slewing seal and the lower slewing seal, the slewing bearing is supported at the second inner bottom of the vessel by a support structure (87, 88) extending between the slewing bearing and the second inner bottom, whereby access to said first space is provided in a radial direction from the interior of the vessel via spaces arranged in the support structure (87, 88) in order to be able to service the upper slewing seal and the lower slewing seal via said first space.