mhurhangee/ep-ind-claims huggingface dataset:
A method for dynamically adjusting a transmission time interval in a communications system, comprising: monitoring at a radio network controller, at least one indicator related to at least one communication link condition; receiving, at a radio network controller, at least one other indicator that cannot be directly monitored by the radio network controller, related to at least one communication link condition, determining (920, 1020) at the radio network controller, based at least in part on the at least one monitored indicator, and the at least one received indicator, at least one transmission time interval to facilitate communication over the at least one communication link; and communicating (990, 1030), from the radio network controller, at least one instruction, for at least one user equipment employing the at least one communication link, to employ the at least one determined transmission time interval during at least one of an established communications event, a voice call, a data call, a soft-handoff condition, or any combination thereof. monitoring at a radio network controller, at least one indicator related to at least one communication link condition; receiving, at a radio network controller, at least one other indicator that cannot be directly monitored by the radio network controller, related to at least one communication link condition, determining (920, 1020) at the radio network controller, based at least in part on the at least one monitored indicator, and the at least one received indicator, at least one transmission time interval to facilitate communication over the at least one communication link; and communicating (990, 1030), from the radio network controller, at least one instruction, for at least one user equipment employing the at least one communication link, to employ the at least one determined transmission time interval during at least one of an established communications event, a voice call, a data call, a soft-handoff condition, or any combination thereof.
A method for processing audio signals comprising the steps of: receiving at least one audio signal having at least a center channel signal, a right side channel signal, and a left side channel signal; processing the right and left side channel signals with a first virtualizer processor, thereby creating a right virtualized channel signal and a left virtualized channel signal; processing the center channel signal with a spatial extensor to produce distinct right and left outputs thereby expanding the center channel with a pseudo-stereo effect, further comprising the steps of: applying a delay or an all-pass filter to the center channel signal, thereby creating a phase-shifted center channel signal; subtracting the phase-shifted center channel signal from the center channel signal to produce the right output; adding the phase-shifted center channel signal to the center channel signal to produce the left output; and scaling the center channel signal based on at least one coefficient which determines a perceived amount of spatial extension; and summing the right and left outputs with the right and left virtualized channel signals to produce at least one modified side channel output. receiving at least one audio signal having at least a center channel signal, a right side channel signal, and a left side channel signal; processing the right and left side channel signals with a first virtualizer processor, thereby creating a right virtualized channel signal and a left virtualized channel signal; processing the center channel signal with a spatial extensor to produce distinct right and left outputs thereby expanding the center channel with a pseudo-stereo effect, further comprising the steps of: applying a delay or an all-pass filter to the center channel signal, thereby creating a phase-shifted center channel signal; subtracting the phase-shifted center channel signal from the center channel signal to produce the right output; adding the phase-shifted center channel signal to the center channel signal to produce the left output; and scaling the center channel signal based on at least one coefficient which determines a perceived amount of spatial extension; and applying a delay or an all-pass filter to the center channel signal, thereby creating a phase-shifted center channel signal; subtracting the phase-shifted center channel signal from the center channel signal to produce the right output; adding the phase-shifted center channel signal to the center channel signal to produce the left output; and scaling the center channel signal based on at least one coefficient which determines a perceived amount of spatial extension; and summing the right and left outputs with the right and left virtualized channel signals to produce at least one modified side channel output.
A manipulator for components, in particular for sheet metal parts, wherein the manipulator is configured to pick up, transport, hold and set down a component, comprising - a base body, which can be mounted in a stationary manner or moved along a guide arrangement, - a first pivot arm pivotally coupled to the base body via a horizontal first pivot axis, - a second pivot arm pivotally coupled to the first pivot arm via a horizontal second pivot axis, - a third pivot arm pivotally coupled to the second pivot arm via a horizontal third pivot axis, - wherein a first axis of rotation extending radially to the third pivot axis is formed on the third pivot arm, characterized in that a gripper support arm rotatably coupled to the third pivot arm via the first axis of rotation is formed, wherein the gripper support arm extends radially with respect to the first axis of rotation, and wherein a gripping arrangement is rotatably coupled to the gripper support arm via a second axis of rotation, which is spaced apart from the first axis of rotation. - a base body, which can be mounted in a stationary manner or moved along a guide arrangement, - a first pivot arm pivotally coupled to the base body via a horizontal first pivot axis, - a second pivot arm pivotally coupled to the first pivot arm via a horizontal second pivot axis, - a third pivot arm pivotally coupled to the second pivot arm via a horizontal third pivot axis, - wherein a first axis of rotation extending radially to the third pivot axis is formed on the third pivot arm,
A structure for draining surface water, comprising a coherent force distribution layer and a drain layer, wherein the drain layer is below the force distribution layer, characterised in that the drain layer is formed of an array of coherent man-made vitreous fiber (MMVF) drain elements, wherein each of the drain elements comprises man-made vitreous fibres bonded with a cured binder composition;wherein each of the drain elements has opposed first and second ends and a passage which extends from a first opening in the first end to a second opening in the second end; wherein the MMVF drain elements comprise a hydrophilic binder and/or a wetting agent; and wherein the force distribution layer comprises a continuous plastic layer, a continuous rubber layer, or a coherent MMVF layer.
A method, comprising: facilitating (104; 110) authentication of a client device attempting to connect to a port of a network element, wherein said facilitating includes determining whether the client device is configured for being authenticated using a first authentication mechanism and, in response to determining that the client device is not configured for being authenticated using the first authentication mechanism, determining whether the client device is configured for being authenticated using at least one other authentication mechanism; characterized in that said method further comprises: for each one of said authentication mechanisms, providing (106, 112) the client device with network connectivity dependent upon a respective first classification policy structure in response to the client device being successfully authenticated; and for each one of said authentication mechanisms, providing (108; 114) the client device with network connectivity dependent upon a respective second classification policy structure different that the first classification policy structure in response to the client device failing to be successfully authenticated. facilitating (104; 110) authentication of a client device attempting to connect to a port of a network element, wherein said facilitating includes determining whether the client device is configured for being authenticated using a first authentication mechanism and, in response to determining that the client device is not configured for being authenticated using the first authentication mechanism, determining whether the client device is configured for being authenticated using at least one other authentication mechanism; for each one of said authentication mechanisms, providing (106, 112) the client device with network connectivity dependent upon a respective first classification policy structure in response to the client device being successfully authenticated; and for each one of said authentication mechanisms, providing (108; 114) the client device with network connectivity dependent upon a respective second classification policy structure different that the first classification policy structure in response to the client device failing to be successfully authenticated.
A modular system for use in measuring a parameter associated with droplet ejection by nozzles of a printhead in a printing system, the modular system comprising: a chassis the modular system, the chassis defining a top surface and a window in the top surface; a film having a first side and a second side, the second side to be supported by the top surface, the first side to be positioned between the printhead and the window, so as to provide a substrate to receive ink droplets from the nozzles; an image capture subsystem (305, 307, 309) positioned so as to capture an image through the second side of the film, through the window, the image representing a plurality of ink droplets received from a respective first plurality of nozzles of the printhead at positions respective to the nozzles, the image capture subsystem to generate an output signal to convey the image to an image processing system; a mechanism mounted by the chassis to advance the film relative to the chassis and the window, the advancement of the film not requiring repositioning of either the printhead or the image capture subsysterr and characterised in that the modular system comprises a station to cure or dry the ink droplets. a chassis the modular system, the chassis defining a top surface and a window in the top surface; a film having a first side and a second side, the second side to be supported by the top surface, the first side to be positioned between the printhead and the window, so as to provide a substrate to receive ink droplets from the nozzles; an image capture subsystem (305, 307, 309) positioned so as to capture an image through the second side of the film, through the window, the image representing a plurality of ink droplets received from a respective first plurality of nozzles of the printhead at positions respective to the nozzles, the image capture subsystem to generate an output signal to convey the image to an image processing system; a mechanism mounted by the chassis to advance the film relative to the chassis and the window, the advancement of the film not requiring repositioning of either the printhead or the image capture subsysterr and characterised in that the modular system comprises a station to cure or dry the ink droplets.
A pneumatic tire comprising a tread portion provided with a pair of shoulder circumferential main grooves disposed one on each side of the tire equator (Co) so that the tread portion is axially divided into a crown land region between the shoulder circumferential main grooves, and a pair of shoulder land regions between the shoulder circumferential main grooves and the tread edges (Te), a circumferential narrow groove disposed in each of the shoulder land regions, axially outer shoulder oblique grooves disposed in each of the shoulder land regions and extending axially outwardly from the circumferential narrow groove beyond the tread edge (Te) while inclining with respect to the tire axial direction to one direction, axially inner shoulder oblique grooves disposed in each of the shoulder land regions and extending axially inwardly from the circumferential narrow groove beyond the shoulder circumferential main groove so as to have their axially inner ends terminated within the crown land region, crown oblique grooves extending from one of the shoulder circumferential main grooves to the other, wherein imaginary extensions of the axially outer shoulder oblique grooves are shifted in the tire circumferential direction from openings of the axially inner shoulder oblique grooves at the circumferential narrow groove so that the imaginary extensions do not overlap with the openings in the tire circumferential direction at the circumferential narrow groove, imaginary extensions of the axially inner shoulder oblique grooves are shifted in the tire circumferential direction from openings of the crown oblique grooves at the shoulder circumferential main groove so that the imaginary extensions do not overlap with the openings in the tire circumferential direction at the shoulder circumferential main groove, the imaginary extensions of the axially inner shoulder oblique grooves are shifted in the tire circumferential direction from openings of the axially outer shoulder oblique grooves at the circumferential narrow groove so that the imaginary extensions do not overlap with the openings in the tire circumferential direction at the circumferential narrow groove, imaginary extensions of the crown oblique grooves are shifted in the tire circumferential direction from openings of the axially inner shoulder oblique grooves at the shoulder circumferential main groove so that the imaginary extensions do not overlap with the openings in the tire circumferential direction at the shoulder circumferential main groove, characterized in that the axially inner shoulder oblique grooves incline with respect to the tire axial direction to one direction opposite to that of the axially outer shoulder oblique grooves, and the crown oblique grooves incline with respect to the tire axial direction to one direction the same as that of the axially outer shoulder oblique grooves.
A method for performing protection switching in an Ethernet passive optical network, EPON, which includes an optical line terminal, OLT, and at least one optical network unit, ONU, the method comprising: configuring the OLT and/or ONU with at least one redundant component, wherein the redundant component can be optical or electrical, and can be a port, line card or fiber link or fiber path, wherein the configurations can provide protection; detecting a failure; and switching automatically to the redundant components to reduce service disruption time, wherein the protection switching comprises: preserving existing configuration if at least one of: a multiple-point control protocol, MPCP, message; an operations, administration and maintenance, OAM, message; and a signal on the physical layer is lost due to the failure; and configuring the redundant components with preserved configurations, the protection switching further comprising maintaining, at the OLT, a static registration of the at least one ONU to prevent the deregistration of the at least one ONU and to recover network operation. configuring the OLT and/or ONU with at least one redundant component, wherein the redundant component can be optical or electrical, and can be a port, line card or fiber link or fiber path, wherein the configurations can provide protection; detecting a failure; and switching automatically to the redundant components to reduce service disruption time, wherein the protection switching comprises: preserving existing configuration if at least one of: a multiple-point control protocol, MPCP, message; an operations, administration and maintenance, OAM, message; and a signal on the physical layer is lost due to the failure; and configuring the redundant components with preserved configurations, the protection switching further comprising maintaining, at the OLT, a static registration of the at least one ONU to prevent preserving existing configuration if at least one of: a multiple-point control protocol, MPCP, message; an operations, administration and maintenance, OAM, message; and a signal on the physical layer is lost due to the failure; and a multiple-point control protocol, MPCP, message; an operations, administration and maintenance, OAM, message; and a signal on the physical layer is lost due to the failure; and configuring the redundant components with preserved configurations, the protection switching further comprising maintaining, at the OLT, a static registration of the at least one ONU to prevent the deregistration of the at least one ONU and to recover network operation.
A window or door assembly comprising a glazing unit housed within a frame, the frame comprising a sash accommodating the glazing unit, and a plurality of vertically and horizontally extending frame elements surrounding the sash, the assembly further comprising a sash profile mounted to an outwardly-facing surface of the sash, and a frame profile mounted to an outwardly-facing surface of at least one of the frame elements, wherein the outwardly-facing surface of the frame profile comprises a stepped portion, and wherein the sash profile overlaps the stepped portion of the outwardly-facing surface of the frame profile characterised in that: - the sash profile is releasably mounted to the sash by means of a rotational clip, so as to overlap an edge of the glazing unit; and - a gap is provided between the sash profile and outwardly-facing surfaces of the glazing unit and sash, which gap extends from an edge of the sash profile which overlaps the glazing unit to the rotational clip and provides a substantially linear pathway from said edge of the sash profile to the rotational clip, which linear pathway is arranged to permit the insertion of a tool through the gap to access the rotational clip. - the sash profile is releasably mounted to the sash by means of a rotational clip, so as to overlap an edge of the glazing unit; and - a gap is provided between the sash profile and outwardly-facing surfaces of the glazing unit and sash, which gap extends from an edge of the sash profile which overlaps the glazing unit to the rotational clip and provides a substantially linear pathway from said edge of the sash profile to the rotational clip, which linear pathway is arranged to permit the insertion of a tool through the gap to access the rotational clip.
A compound having the formula: and salt complexes thereof wherein R 1 is selected from the group consisting of alkylamino, -NHCH 2 CH 2 NH 2, -NHCH 2 CH 2 OH, allylamino, dialkylamino, alkyloxy, -OCH 2 CH 2 OH, and aryloxy, and R 2, R 3, and R 4 are each hydrogen or acyl. and salt complexes thereof wherein R 1 is selected from the group consisting of alkylamino, -NHCH 2 CH 2 NH 2, -NHCH 2 CH 2 OH, allylamino, dialkylamino, alkyloxy, -OCH 2 CH 2 OH, and aryloxy, and R 2, R 3, and R 4 are each hydrogen or acyl.
A terminal for communicating with a base station, comprising: a terminal higher layer processing unit configured to set a first measurement target configuration, and to receive a second measurement target configuration and a report configuration from the base station; and a transmitting unit configured to transmit a measurement report to the base station; characterized in that the second measurement target configuration includes one or a plurality of combinations of a measurement index for a channel-state information reference signal and a configuration for the channel-state information reference signal; the report configuration includes the measurement index for the channel-state information reference signal, and the measurement report includes a received power of a cell-specific reference signal specified by the first measurement target configuration, the measurement index and a received power of the channel-state information reference signal specified by the measurement index. a terminal higher layer processing unit configured to set a first measurement target configuration, and to receive a second measurement target configuration and a report configuration from the base station; and a transmitting unit configured to transmit a measurement report to the base station; characterized in that the second measurement target configuration includes one or a plurality of combinations of a measurement index for a channel-state information reference signal and a configuration for the channel-state information reference signal; the report configuration includes the measurement index for the channel-state information reference signal, and the measurement report includes a received power of a cell-specific reference signal specified by the first measurement target configuration, the measurement index and a received power of the channel-state information reference signal specified by the measurement index.
A method of controlling a field device implemented in a safety instrumented system SIS operatively coupled to a process control system, said field device being responsive to normal control signal and occurrence of a safety event, the method comprising: detecting, at a hardware module of the field device, an occurrence of a safety event requiring the field device to be placed in a safe-state; overriding, at the hardware module, normal control of the field device to cause the field device to enter the safe state in response to the detected occurrence of the safety event, wherein overriding normal control of the field device includes the hardware module providing a hardware control signal to cause the field device to enter the safe-state; characterizing in that the method further comprises: detecting, at a software module of the field device, said occurrence of the safety event; monitoring, by the software module, the hardware control signal provided by the hardware module to determine whether the hardware module has initiated the override of normal control of the field device by comparing a safe-state signal to the monitored hardware control signal; and transmitting, at the software module, a software control signal generated by the software module, to cause the field device to enter the safe-state. detecting, at a hardware module of the field device, an occurrence of a safety event requiring the field device to be placed in a safe-state; overriding, at the hardware module, normal control of the field device to cause the field device to enter the safe state in response to the detected occurrence of the safety event, wherein overriding normal control of the field device includes the hardware module providing a hardware control signal to cause the field device to enter the safe-state; characterizing in that the method further comprises: detecting, at a software module of the field device, said occurrence of the safety event; monitoring, by the software module, the hardware control signal provided by the hardware module to determine whether the hardware module has initiated the override of normal control of the field device by comparing a safe-state signal to the monitored hardware control signal; and transmitting, at the software module, a software control signal generated by the software module, to cause the field device to enter the safe-state. detecting, at a software module of the field device, said occurrence of the safety event; monitoring, by the software module, the hardware control signal provided by the hardware module to determine whether the hardware module has initiated the override of normal control of the field device by comparing a safe-state signal to the monitored hardware control signal; and transmitting, at the software module, a software control signal generated by the software module, to cause the field device to enter the safe-state.