Abstract: Example implementations are directed to a method and an apparatus for managing one of a plurality of core networks (CNs) sharing a radio access network (RAN), which may receive a RAN resource allocation control type indicator associated with at least one CN of the plurality of CNs. The RAN resource allocation control type indicator be at least one of: a guaranteed minimum allocation of RAN resources, an absolute allocation of RAN resources, and a percentage-based allocation of RAN resources. The method and apparatus may further include determining a RAN resource allotment parameter for the at least one CN of the plurality of CNs. The RAN resource allotment parameter and an identification of the associated at least one CN may be transmitted to a traffic controller such that the at least one CN is allocated an amount of RAN resources based on the resource allotment value may.

Abstract: Example implementations described herein are directed to a support node apparatus configured to support a wireless network system. The support node apparatus can be in the form of a mobility management entity and/or a serving general packet radio service. The example implementations directed herein can provide a network resource identifier and/or a globally unique temporary identifier to an associated user equipment to facilitate the transfer of the user equipment from a source support node apparatus to a target support node apparatus. In example implementations, the target support node apparatus can thereby be directly specified by use of the identifier.

Abstract: Example implementations are directed to systems and methods involving a mobility management entity (MME) pool. In example implementations, the MME of the pool can be configured as a backup for a fraction of subscribers associated with other MME in the pool. Upon detection of the failure of an MME in the pool, the surviving MME messages eNodeBs and other peer network nodes that it will take over the impacted subscribers such that the subscribers do not need to conduct a reattachment process. Multiple MME codes per MME can be used to partition the subscribers for backup, which can thereby lead to geo-redundancy for the MME.

Abstract: A system for and method of removing one or more unwanted inband signals from a received communications signal is described. The inband signal or signals may comprise noise, interference signals, or any other unwanted signals that impact the quality of the underlying communications. A signal attenuator is configured to selectively attenuate the one or more unwanted inband signals to form a modified received signal that includes the desired communication signal and the attenuated inband signals. A signal separator processes the modified received signal to form an estimate of the desired communication signal and an estimate of the inband signals.

Abstract: A system for and method of removing one or more unwanted inband signals from a received communications signal is described. The inband signal or signals may comprise noise, interference signals, or any other unwanted signals that impact the quality of the underlying communications. A signal attenuator is configured to selectively attenuate the one or more unwanted inband signals to form a modified received signal that includes the desired communication signal and the attenuated inband signals. A signal separator processes the modified received signal to form an estimate of the desired communication signal and an estimate of the inband signals.

Abstract: The present invention relates to an intelligent television operation system, comprising an application frame layer combining and repackaging each component interface and logic of component layer to simplify reusing mechanism of application for components of the component layer; an application execution environment layer providing execution explaining environment of application codes; a component layer comprising a digital television-associated component for supporting an intelligent television application, wherein each component provides a standard universal component interface for the application frame layer; a hardware abstraction layer performing abstraction on hardware functions of Linux core layer, hiding hardware interface details and providing virtual hardware platform to provide unified interface for the component layer, whereby the component layer is hardware-irrelevant and transplanting on multiple platforms is facilitated; and a Linux core layer managing process, managing memory, realizing network

Abstract: A system for and method of removing one or more unwanted inband signals from a received communications signal is described. The inband signal or signals may comprise noise, interference signals, or any other unwanted signals that impact the quality of the underlying communications. A receiver receives a communication signal, the received communication signal including the desired communication signal and one or more inband signals. A signal separator processes the received signal to form an estimate of the desired communication signal and an estimate of the inband signals. A performance improver processes the received signal and the estimate of the one or more inband signals to form an improved estimate of the desired communication signal and an improved estimate of the inband signals.

Abstract: A system for and method of removing one or more unwanted inband signals from a received communications signal is described. The inband signal or signals may comprise noise, interference signals, or any other unwanted signals that impact the quality of the underlying communications. A receiver receives a communication signal, the received communication signal including the desired communication signal and one or more inband signals. A signal separator processes the received signal to form an estimate of the desired communication signal and an estimate of the inband signals. A performance improver processes the received signal and the estimate of the one or more inband signals to form an improved estimate of the desired communication signal and an improved estimate of the inband signals.

Abstract: Remote meter reading terminal devices 2 generate electronic signature data based on meter reading information that includes a measured value acquired by electricity meters 3, measurement date and time, and an electricity meter ID, and transmit the generated electronic signature data and the meter reading information to a meter reading data management server 1. When the verification of the electronic signature data received from the remote meter reading terminal devices 2 has succeeded, the meter reading data management server 1 generates a hash value of the meter reading information and transmits the generated hash value to a TSA server 4. The meter reading data management server 1 also acquires a time stamp generated by the TSA server 4 and stores therein meter reading data that includes the time stamp, the meter reading information, the electronic signature data and the hash value.

Abstract: A method of and system for determining cross-polarization isolation is described. In one embodiment, a modulated signal is obtained from a communication link. The modulated signal includes a modulated co-polarized signal component and a modulated cross-polarized signal component. Cross-polarization isolation is determined using the modulated co-polarized signal component and the modulated cross-polarized signal component. The determined cross-polarization isolation can be used to adjust an antenna.

Abstract: The present invention provides a method and apparatus for determining the transmit location of an emitter using a single geostationary satellite. In an embodiment, a signal is received at a ground station from the emitter and relayed by the geostationary satellite. The signal is received at the ground station at a plurality of time instances and has a plurality of observed frequencies, one for each time instance. A plurality of lines of position are determining based on the plurality of observed frequencies. The transmit location of the emitter is determined based on at least one intersection among the plurality of lines of position.

Abstract: A system for and method of removing one or more unwanted inband signals from a received communications signal is described. The inband signal or signals may comprise noise, interference signals, or any other unwanted signals that impact the quality of the underlying communications. A receiver receives a communication signal, the received communication signal including the desired communication signal and one or more inband signals. A signal processor processes the received signal to form an estimate of the desired communication signal and an estimate of the inband signals. The estimate of the inband signals is thereby removed from the received signal. The estimate of the desired communication signal and the estimate of the inband signals are formed without prior knowledge of characteristics of the inband signals and without obtaining a copy of any of the inband signals from any source other than the received signal.

Abstract: In accordance with a first aspect of the disclosure, a system is provided. The system includes: an optical line terminal (OLT) shelf including a plurality of optical line cards, each optical line card supporting at least one passive optical network (PON) interface for communicating with a corresponding set of optical network units (ONUs), the OLT shelf thereby corresponding to a plurality of sets the ONUs; a system card controller for controlling the plurality of optical line cards; and a DOCSIS proxy for emulating a cable modem (CM) SNMP agent for each ONU, the DOCSIS proxy being responsive to an SNP manager in a DOCSIS NMS to configure the ONUs accordingly.

Abstract: Remote meter reading terminal devices 2 generate electronic signature data based on meter reading information that includes a measured value acquired by electricity meters 3, measurement date and time, and an electricity meter ID, and transmit the generated electronic signature data and the meter reading information to a meter reading data management server 1. When the verification of the electronic signature data received from the remote meter reading terminal devices 2 has succeeded, the meter reading data management server 1 generates a hash value of the meter reading information and transmits the generated hash value to a TSA server 4. The meter reading data management server 1 also acquires a time stamp generated by the TSA server 4 and stores therein meter reading data that includes the time stamp, the meter reading information, the electronic signature data and the hash value.

Abstract: In one embodiment, a passive optical network is provided that includes: an optical line terminal (OLT) configured to transmit a plurality of downstream signals into a corresponding plurality of passive optical networks and to receive a corresponding plurality of upstream signals from the plurality of passive optical networks, wherein each downstream signal is separated in wavelength from the remaining wavelength signals, and wherein each upstream signal is separated in wavelength from the remaining upstream signal; a Mux/Demux configured to multiplex the downstream signals from the OLT into a optical fiber and to demultiplex upstream signals from the optical fibers to the OLT; and a splitter configured to split the downstream signals from the OLT to a plurality of optical network units such that each optical network unit receives the plurality of downstream signals.

Abstract: Embodiments provide systems and methods for determining the geolocation of an emitter on earth. A solution is obtained from two TDOA measurements that need not be acquired at the same time. A solution is obtained from a TDOA measurement and an FDOA measurement that need not be acquired at the same time and need not be coming from the same satellite pair. A location of an emitter can be determined from minimizing a cost function of the weighted combination of the six solutions derived from the two TDOA measurements and the two FDOA measurements, where the weight of each solution in the combination is determined based on the intersection angle of the two curves that define the possible locations of the emitter based on the TDOA and/or FDOA measurements.

Abstract: A system for and method of removing one or more unwanted inband signals from a received communications signal is described. The inband signal or signals may comprise noise, interference signals, or any other unwanted signals that impact the quality of the underlying communications. A receiver receives a communication signal, the received communication signal including the desired communication signal and one or more inband signals. A signal processor processes the received signal to form an estimate of the desired communication signal and an estimate of the inband signals. The estimate of the inband signals is thereby removed from the received signal. The estimate of the desired communication signal and the estimate of the inband signals are formed without prior knowledge of characteristics of the inband signals and without obtaining a copy of any of the inband signals from any source other than the received signal.

Abstract: An optical transmission apparatus comprising a first detector for detecting the power of the supervisory signal light separated from received wavelength-division multiplexed signal lights; a second detector for detecting the power of the wavelength-division multiplexed signal lights after the separation of the supervisory signal light; a gain-controlled type optical amplifier for amplifying the wavelength-division multiplexed signal lights; an optical attenuator coupled to the amplifier; and a control unit for controlling the optical amplifier and the optical attenuator so as to keep the output level of the wavelength-division multiplexed signal lights to a predetermined target value, wherein the control unit restrains automatic output level control by the optical attenuator when the supervisory signal light power fluctuates within its permissible range and fluctuations in the signal light power have deviated from its permissible range.

Abstract: Embodiments provide systems and methods for determining the geolocation of an emitter on earth. A solution is obtained from two TDOA measurements that need not be acquired at the same time. A solution is obtained from a TDOA measurement and an FDOA measurement that need not be acquired at the same time and need not be coming from the same satellite pair. A location of an emitter can be determined from minimizing a cost function of the weighted combination of the six solutions derived from the two TDOA measurements and the two FDOA measurements, where the weight of each solution in the combination is determined based on the intersection angle of the two curves that define the possible locations of the emitter based on the TDOA and/or FDOA measurements.

Abstract: Embodiments provide systems and methods for determining the geolocation of an emitter on earth based on weighted least-squares estimation based on two TDOA and two FDOA measurements, none of which need to be acquired at the same time. The four TDOA and FDOA measurements and the errors in each of the measurements are determined. Weights for the errors in the TDOA and FDOA measurements are determined, and the weights are applied in a weighted errors function. The weights account for the errors in the measurements and the errors in the satellite positions and velocities, and are dependent on the localization geometry. The weighted errors function is minimized to determine the location estimate of the unknown emitter.