mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a Self Organizing Network, SON, management module implemented in at least one of a memory or a processing device, the SON management module configured to receive a signal associated with a value of a performance indicator that a first SON process module is configured to optimize using a first metric and an antenna-based SON process, the antenna-based SON process to modify antenna metric values; the SON management module configured to optimize a value associated with the first metric based at least in part on the value of the performance indicator that the first SON process module is configured to optimize and a value of a performance indicator that a second SON process module is configured to optimize using the first metric and a parameter-based SON process, the parameter-based SON process to modify other metric values not associated with antennas, and a value of a second metric used to optimize the performance indicator that the first SON process module is configured to optimize, and the SON management module configured to send a signal to the first SON process module, including the value associated with the first metric and the value of the second metric. a Self Organizing Network, SON, management module implemented in at least one of a memory or a processing device, the SON management module configured to receive a signal associated with a value of a performance indicator that a first SON process module is configured to optimize using a first metric and an antenna-based SON process, the antenna-based SON process to modify antenna metric values; the SON management module configured to optimize a value associated with the first metric based at least in part on the value of the performance indicator that the first SON process module is configured to optimize and a value of a performance indicator that a second SON process module is configured to optimize using the first metric and a parameter-based SON process, the parameter-based SON process to modify other metric values not associated with antennas, and a value of a second metric used to optimize the performance indicator that the first SON process module is configured to optimize, and the SON management module configured to send a signal to the first SON process module, including the value associated with the first metric and the value of the second metric.
A method of controlling surrounding devices (2000, 3000), the method performed by a host device and comprising: scanning the surrounding devices (2000, 3000); determining a main surrounding device to be configured in a topology from among the scanned surrounding devices (2000, 3000) based on topology configuration standards matching a context of the host device, characterized in that the method further comprises the steps of: transmitting a plurality of pieces of surrounding device information regarding at least one sub surrounding device, to the main surrounding device; transmitting context information regarding the context of the host device to the main surrounding device; connecting (S540, S545) the main surrounding device, at least one sub surrounding device, and the host device, based on the topology configuration standards; and controlling (S550, S555) the main surrounding device and the at least one sub surrounding device. scanning the surrounding devices (2000, 3000); determining a main surrounding device to be configured in a topology from among the scanned surrounding devices (2000, 3000) based on topology configuration standards matching a context of the host device, characterized in that the method further comprises the steps of: transmitting a plurality of pieces of surrounding device information regarding at least one sub surrounding device, to the main surrounding device; transmitting context information regarding the context of the host device to the main surrounding device; connecting (S540, S545) the main surrounding device, at least one sub surrounding device, and the host device, based on the topology configuration standards; and controlling (S550, S555) the main surrounding device and the at least one sub surrounding device. transmitting a plurality of pieces of surrounding device information regarding at least one sub surrounding device, to the main surrounding device; transmitting context information regarding the context of the host device to the main surrounding device; connecting (S540, S545) the main surrounding device, at least one sub surrounding device, and the host device, based on the topology configuration standards; and controlling (S550, S555) the main surrounding device and the at least one sub surrounding device.
A sample processing assembly for treatment of a sample on a substrate, the assembly including: a. a mounting surface for the substrate; b. a closure body configured to releasably retain a cover member, the closure body being movable between an open position and a closed position; c. a force distribution member; d. a closing biasing means for applying a closing biasing force to the closure body such that the closure body is biased in the closed position; and e. an opening biasing means for applying an opening biasing force to the closure body; wherein, when a substrate is placed in the assembly and the closure body is in the closed position while retaining the cover member, a reaction chamber is formed for processing a sample; and wherein the force distribution member distributes the closing biasing force applied to the closure body evenly so that when in the closed position, a seal forms at a junction between the cover member and the substrate; wherein the closing biasing means is configured to apply a larger biasing force than the opening biasing means. a. a mounting surface for the substrate; b. a closure body configured to releasably retain a cover member, the closure body being movable between an open position and a closed position; c. a force distribution member; d. a closing biasing means for applying a closing biasing force to the closure body such that the closure body is biased in the closed position; and e. an opening biasing means for applying an opening biasing force to the closure body; wherein, when a substrate is placed in the assembly and the closure body is in the closed position while retaining the cover member, a reaction chamber is formed for processing a sample; and wherein the force distribution member distributes the closing biasing force applied to the closure body evenly so that when in the closed position, a seal forms at a junction between the cover member and the substrate; wherein the closing biasing means is configured to apply a larger biasing force than the opening biasing means.
Insect screen device for skylights comprising at least one housing chamber (25, 125, 225, 325, 425, 525, 725) of at least one leaf portion (16, 18, 116, 216) of at least one predetermined skylight, said housing chamber projects laterally to a predetermined plane, and from said plane, and comprises at least one access opening (28, 328, 428), at said plane, suitable for the passage of the at least one leaf portion (16, 18, 116, 216), said housing chamber (25, 125, 225, 325, 425, 525, 725) is delimited by an overall surface (26, 526) comprising at least one mesh and/or fabric (30, 32, 230a, 230b, 330, 332, 430a, 430b, 730), characterised in that the surface (30, 730) of said housing chamber (25, 125, 225, 325, 425, 525, 725) comprises at least one second opening (40, 340, 440, 540, 740), facing the access opening, said second opening can be opened and closed by means of a flap of mesh and/or fabric able to be lifted with respect to the overall surface (26, 526) and arranged inside the chamber, and/or through the juxtaposition of at least two edges (741, 742) of mesh and/or fabric of said overall surface (26, 526).
Tool for generating an undercut in a bone, comprising a core with a shank and a stamp mounted on a distal end of the shank, wherein the stamp, in a transition area to the shank, has a run-on bevel ascending in the distal direction, and a cutting sleeve which is arranged to be longitudinally movable on the shank and of which the distal end is formed by at least one segment that can be spread open when pushed onto the run-on bevel, wherein the at least one segment has at least one laterally arranged cutting edge, and wherein the cutting sleeve is made of an elastic material, at least in a transition area between the at least one segment and a shank of the cutting sleeve.
A motor-driven compressor to be connected to an external refrigerant circuit, comprising: a housing including an intermediate housing and a front housing connected to the intermediate housing, the intermediate housing having an inlet port adjacent to the front housing; a compression mechanism accommodated in the intermediate housing for compression of refrigerant introduced from the external refrigerant circuit via the inlet port into the housing; an inverter accommodated in the front housing and having a heat-generating component; an electric motor accommodated in the intermediate housing and driven by the inverter; and a rotary shaft rotated by the electric motor thereby to drive the compression mechanism, wherein the compression mechanism, the electric motor, and the inverter are aligned in order in axial direction of the rotary shaft, wherein the intermediate housing is positioned next to the front housing in the axial direction, wherein an inlet pipe is connected to the inlet port, characterized in that the inlet pipe extends in the axial direction from the inlet port along and in contact with outer peripheral surfaces of both the intermediate housing and the front housing, and the heat-generating component of the inverter is disposed adjacent to or in contact with the inlet pipe so as to be thermally coupled to the inlet pipe. a housing including an intermediate housing and a front housing connected to the intermediate housing, the intermediate housing having an inlet port adjacent to the front housing; a compression mechanism accommodated in the intermediate housing for compression of refrigerant introduced from the external refrigerant circuit via the inlet port into the housing; an inverter accommodated in the front housing and having a heat-generating component; an electric motor accommodated in the intermediate housing and driven by the inverter; and a rotary shaft rotated by the electric motor thereby to drive the compression mechanism, wherein the compression mechanism, the electric motor, and the inverter are aligned in order in axial direction of the rotary shaft, wherein the intermediate housing is positioned next to the front housing in the axial direction, wherein an inlet pipe is connected to the inlet port, characterized in that the inlet pipe extends in the axial direction from the inlet port along and in contact with outer peripheral surfaces of both the intermediate housing and the front housing, and the heat-generating component of the inverter is disposed adjacent to or in contact with the inlet pipe so as to be thermally coupled to the inlet pipe.
Electronic handle for a vehicle door, the handle comprising: - a grip lever being moveable according to a grip axis between a mechanical active position in which the rotation of the grip lever activates the opening of the door, a rest position in which the grip lever is not rotated, and an electronic active position between the rest position and the mechanical active position, in which the grip lever activates the electronic unlatching of the door; - a fixed part (2, 3) which is fixed relatively to the grip lever; wherein - a blocking element is interposed between the fixed part (2, 3) and the grip lever, the blocking element being moveable between a blocking position in which the grip lever is prevented from rotating from the electronic active position to the mechanical active position and an unblocking position in which the grip lever is free to be moved to the mechanical active position. - a grip lever being moveable according to a grip axis between a mechanical active position in which the rotation of the grip lever activates the opening of the door, a rest position in which the grip lever is not rotated, and an electronic active position between the rest position and the mechanical active position, in which the grip lever activates the electronic unlatching of the door; - a fixed part (2, 3) which is fixed relatively to the grip lever; wherein - a blocking element is interposed between the fixed part (2, 3) and the grip lever, the blocking element being moveable between a blocking position in which the grip lever is prevented from rotating from the electronic active position to the mechanical active position and an unblocking position in which the grip lever is free to be moved to the mechanical active position. - a blocking element is interposed between the fixed part (2, 3) and the grip lever, the blocking element being moveable between a blocking position in which the grip lever is prevented from rotating from the electronic active position to the mechanical active position and an unblocking position in which the grip lever is free to be moved to the mechanical active position.
A method for automatically identifying a synchronization sub-pattern associated with a test pattern having a predefined length, the method comprising: receiving, by an input of a test and measurement instrument, a data stream including the test pattern from a device under test; reading from a memory, contents of a memory word associated with a memory address; setting the contents of the memory word as a trigger pattern; loading the trigger pattern to a trigger that triggers in response to the trigger pattern appearing in the data stream; detecting a first trigger corresponding to a first instance of the trigger pattern in the data stream; beginning a count, by a trigger-to-trigger counter, in response to detecting the first trigger; detecting a second trigger corresponding to a second instance of the trigger pattern in the data stream; ending the count, by the trigger-to-trigger counter, in response to detecting the second trigger; comparing the count to the predefined length of the test pattern; in response to the count being equal to the predefined length of the test pattern, determining that the trigger pattern is the synchronization sub-pattern associated with the test pattern; and in response to the count not being equal to the predefined length of the test pattern, determining that the trigger pattern is not the synchronization sub-pattern, and changing the trigger pattern. receiving, by an input of a test and measurement instrument, a data stream including the test pattern from a device under test; reading from a memory, contents of a memory word associated with a memory address; setting the contents of the memory word as a trigger pattern; loading the trigger pattern to a trigger that triggers in response to the trigger pattern appearing in the data stream; detecting a first trigger corresponding to a first instance of the trigger pattern in the data stream; beginning a count, by a trigger-to-trigger counter, in response to detecting the first trigger; detecting a second trigger corresponding to a second instance of the trigger pattern in the data stream; ending the count, by the trigger-to-trigger counter, in response to detecting the second trigger; comparing the count to the predefined length of the test pattern; in response to the count being equal to the predefined length of the test pattern, determining that the trigger pattern is the synchronization sub-pattern associated with the test pattern; and in response to the count not being equal to the predefined length of the test pattern, determining that the trigger pattern is not the synchronization sub-pattern, and changing the trigger pattern.
A deposition method, comprising: introducing a gas into an airtight container containing electrically insulated raw material particles to generate an aerosol of the raw material particles; transferring the aerosol to a deposition chamber through a transfer tubing connected to the airtight container, the deposition chamber having a pressure maintained to be lower than that of the airtight container; injecting the aerosol from a nozzle mounted on a tip of the transfer tubing toward a target placed in the deposition chamber to cause the raw material particles to collide with the target, thereby causing the raw material particles to be positively charged; generating fine particles of the raw material particles by discharge of the charged raw material particles; and depositing the fine particles on a substrate being support by the stage and placed in the deposition chamber, the stage being arranged at a position that is not on an extension of the direction in which the raw material particles injected from the nozzle are reflected on an irradiation surface of the target, wherein the stage, the supported substrate, the target and the deposition chamber are connected to a ground potential, the target includes a conductive material, and the raw material particals are insulating. introducing a gas into an airtight container containing electrically insulated raw material particles to generate an aerosol of the raw material particles; transferring the aerosol to a deposition chamber through a transfer tubing connected to the airtight container, the deposition chamber having a pressure maintained to be lower than that of the airtight container; injecting the aerosol from a nozzle mounted on a tip of the transfer tubing toward a target placed in the deposition chamber to cause the raw material particles to collide with the target, thereby causing the raw material particles to be positively charged; generating fine particles of the raw material particles by discharge of the charged raw material particles; and depositing the fine particles on a substrate being support by the stage and placed in the deposition chamber, the stage being arranged at a position that is not on an extension of the direction in which the raw material particles injected from the nozzle are reflected on an irradiation surface of the target, wherein the stage, the supported substrate, the target and the deposition chamber are connected to a ground potential, the target includes a conductive material, and the raw material particals are insulating.
An aircraft landing gear including: a bogie beam coupled to a main strut; a first axle mounted on the bogie beam, the first axle carrying a first brake assembly and a first wheel assembly; a second axle mounted on the bogie beam, the second axle carrying a second brake assembly and a second wheel assembly, the first and second axles being adjacent so as to form an axle pair; a first stabilising arm arranged to mechanically couple the first brake assembly to a first anchor point on the landing gear so as to react a first brake torque generated as the first brake assembly applies a braking force to the first wheel assembly; and a second stabilising arm arranged to mechanically couple the second brake assembly to a second anchor point on the landing gear so as to react a second brake torque generated as the second brake assembly applies a braking force to the second wheel assembly, characterised in that the first and second stabilising arms couple the respective first and second brake assemblies to the respective first and second anchor points such that the first and second brake torques result in both stabilising arms experiencing a tensile force. a bogie beam coupled to a main strut; a first axle mounted on the bogie beam, the first axle carrying a first brake assembly and a first wheel assembly; a second axle mounted on the bogie beam, the second axle carrying a second brake assembly and a second wheel assembly, the first and second axles being adjacent so as to form an axle pair; a first stabilising arm arranged to mechanically couple the first brake assembly to a first anchor point on the landing gear so as to react a first brake torque generated as the first brake assembly applies a braking force to the first wheel assembly; and a second stabilising arm arranged to mechanically couple the second brake assembly to a second anchor point on the landing gear so as to react a second brake torque generated as the second brake assembly applies a braking force to the second wheel assembly, characterised in that the first and second stabilising arms couple the respective first and second brake assemblies to the respective first and second anchor points such that the first and second brake torques result in both stabilising arms experiencing a tensile force.
Mount for a tube for heated flooring, intended to attach a tube to an insulating synthetic support layer, said mount comprising at least one anchoring branch (12, 14) surmounted by a hooking part curved towards said anchoring branch, said anchoring branch (12, 14) being intended to be embedded in said layer, while said hooking part is able to receive said tube, said anchoring branch (12, 14) comprising a stem-forming portion extended by a perforation end and at least one flexible non-return fin (24, 26) integral with said perforation end, said flexible non-return fin (24, 26) extending freely with respect to said stem-forming portion, said flexible non-return fin (24, 26) being adapted to flex towards said stem-forming portion when said anchoring branch is embedded in said layer and to move away from said stem-forming portion when said anchoring branch (12, 14) is moved in a direction opposite to that in which it is embedded in said layer, said anchoring branch (12, 14) further comprising a flexible link (28, 30), characterised in that the flexible link connects said flexible fin (24, 26) and said stem-forming portion in order to restrain said flexible non-return fin when it moves away from said stem-forming portion, whereby said anchoring branch (12, 14) is blocked for translational movement when it is moved in a direction opposite to that in which it is embedded.
A method, performed by a network device, for information transmission, comprising transmitting a non-access stratum, NAS, message to a terminal, wherein multiple UMTS subscriber identity modules, USIMs, are installed on the terminal, wherein the terminal performs communication by using network connection corresponding to a USIM, and wherein the NAS message contains a capability parameter, the capability parameter being used to indicate a multi-card capability supported and/or allowed by the network device, and the multi-card capability supported and/or allowed by the network device comprising: receiving, from the terminal, a service list; supporting or allowing to determine, according to the service list, whether to transmit a paging message to the terminal, the service list containing service information indicative of that the network device is prohibited from transmitting the paging message to the terminal on condition that the terminal is in a radio resource control inactive, RRC-Inactive, state and/or a connection management idle, CM-IDLE, state.
A seal segment for a gas turbine engine, comprising: a first axial wall; a second axial wall radially spaced from said first axial wall; a radially outer wall that interconnects said first axial wall and said second axial wall; and at least one curved member radially inwardly offset from said radially outer wall and extending between said first and second axial walls (72, 74); at least one truss member that extends between said radially outer wall and said at least one curved member, said seal segment characterised in that said at least one curved member conveys an axial force against an adjacent structure of said seal segment. a first axial wall; a second axial wall radially spaced from said first axial wall; a radially outer wall that interconnects said first axial wall and said second axial wall; and at least one curved member radially inwardly offset from said radially outer wall and extending between said first and second axial walls (72, 74); at least one truss member that extends between said radially outer wall and said at least one curved member, said seal segment characterised in that said at least one curved member conveys an axial force against an adjacent structure of said seal segment.