1435 results about "Small cell" patented technology

A method and radio network controller (RNC) in a radio access network (RAN) for controlling access to a cellular telecommunication system. Upon receiving an access request from a given user equipment (UE) through a given radio base station (RBS), the RNC retrieves authorization information from an access control database within the RAN. The authorization information indicates whether the given UE is authorized to access the system through the given RBS. The RNC alternatively grants access or denies access to the UE based on the retrieved authorization information. The RBS is particularly useful for controlling access through small cells with limited capacity.

The invention provides a method and apparatus for controlling access to network slicing, a terminal small cell and a SDN controller. The control method which is suitable to the terminal small cell includes the following steps: acquiring information of at least one network slicing a user needs to access so as to obtain information of at least one network slicing; transmitting the information of at least one network slicing to the SDN controller; based on the control of the SDN controller, and accessing to the at least one network slicing. The technical solution of the invention enables the terminal small cell to access to a corresponding network slicing in advance so as to provide corresponding network service to a user device which is accessed to the terminal small cell, and realizes support of the terminal small cell to the network slicing.

A method of handing off between a cellular network and a Wi-Fi network is disclosed. A cellular base station of the cellular network is caused to collect information related to the cellular network. A Wi-Fi access point of the Wi-Fi network is caused to collect information related to the Wi-Fi network, wherein the cellular base station and the Wi-Fi access point are co-located. The information related to the cellular network and the information related to the Wi-Fi network are used collectively for determining whether to handoff traffic of a user equipment from a cellular air interface of the cellular network to a Wi-Fi air interface of the Wi-Fi network, or vice versa.

A dual band LTE small cell base station communicates on both licensed bands and unlicensed bands. The small cell base station modifies the communication protocol utilized by the licensed band to enable communication over an unlicensed band. This modification involves replacing the physical (PHY) layer of the licensed band communication protocol with the PHY layer of a to-be-used protocol in an unlicensed band.

A Base Station (BS) includes an apparatus and method for transmitting cell information. The BS is in the a communication system of a small cell size in a wireless communication environment in which a communication system of a large cell size and the communication system of the small cell size are hierarchically constructed in the same area. The method includes confirming reference signal transmission information for transmitting a reference signal including its own cell information, if a reference signal transmission interval arrives according to the reference signal transmission information, transmitting the reference signal through an operation frequency of a macro BS of the large cell size including the BS itself, and, if it is not the reference signal transmission interval, providing service through its own operation frequency or operating in a power saving mode.

The disclosure is related to selecting an operating channel for a cellular network to reduce interference to a wireless local area network (WLAN) operated by a small cell comprising a WLAN access point and a cellular network modem. The small cell performs a channel scan of available channels, determines whether or not there is a clean channel to be the operating channel for the cellular network based on the channel scan, wherein a clean channel comprises a channel that interferes with the WLAN less than a WLAN interference threshold, and selects the clean channel as the operating channel for the cellular network based on the clean channel being available or turns off the cellular network based on no clean channel being available.

A large battery pack of specified voltage and capacity can be assembled from a plurality of identical small cells by dividing the specified capacity by a nominal battery module capacity to determine a desired number of parallel modules to be provided, dividing the nominal battery module capacity by a nominal cell card capacity, to determine the number of cell cards required in each module, connecting the call cards in parallel to a common buswork to form the battery module, and connecting the modules in parallel to obtain the specified battery pack capacity and in series to obtain the specified battery pack voltage Protection circuitry can be implemented at the module level, by disconnecting one or more modules or the entire battery pack if a fault at the module level is identified; at the cell card level, by disconnecting a cell card if a cell within it is determined to be faulty; and / or internally, in each cell.

A method and a macro cell eN B are disclosed. The method includes receiving a measurement report message of the small cell from the UE connected to the macro cell, determining to configure dual connectivity with the macro cell and the small cell to the UE based on a measured value contained in the measurement report message, transmitting a dual connectivity request message for requesting connection with the UE to the small cell, receiving a dual connectivity response message indicating that the small cell is connected to the UE to determine to allocate a resource to the UE, from the small cell, and transmitting an RRC configuration message for requesting addition of connection with the small cell, to the UE.

The present disclosure provides a method of performing a small cell detection, a small cell base station using the same method, and a mobile electronic device using the same method. The method and the device would perform functions including a user equipment (UE) detecting a discovery signal from a small cell base station (BS) over a schedulable resource in a Macro cell frequency, the user equipment transmitting a detection report to a Macro cell BS in response to detecting the discovery signal, the UE receiving a measurement command to measure a small cell BS in the small cell frequency, and generating and transmitting the measurement report after measuring the small cell BS in the small cell frequency.

The method for transmitting and receiving data at a base station in a wireless communication system according to one embodiment of the present invention includes the steps of: receiving a performance report from a terminal; determining whether the addition of a serving cell is necessary; when the addition of the serving cell is necessary, transmitting a request for receiving a cell identifying signal to one or more other base stations on the basis of the received performance repoπand transmitting a request for transmitting the cell identifying signal to the terminal. According to the embodiment, in a network in which a small cell and a macro cell are overlapped and operated, the terminal can minimize battery consumption and quickly recognize the small cell.

A multicast and broadcast data transmission method is provided. The multicast and broadcast data transmission method includes transmitting, at at least one synchronized macrocell base station, Multicast and Broadcast Service (MBS) data to user equipment (UE) using radio resources allocated for MBS data transmission. Here, a relay or a small cell base station in the cell of the at least one synchronized macrocell base station keeps silent for the radio resources used for the macrocell base station to transmit MBS traffic data without performing any transmitting operation. Accordingly, it is possible to increase transmission efficiency while minimizing interference in a UE, and improve the quality of a multicast broadcast service while reducing required radio resources.

A method and radio network controller (RNC) in a radio access network (RAN) for controlling access to a cellular telecommunication system. Upon receiving an access request from a given user equipment (UE) through a given radio base station (RBS), the RNC retrieves authorization information from an access control database within the RAN. The authorization information indicates whether the given UE is authorized to access the system through the given RBS. The RNC alternatively grants access or denies access to the UE based on the retrieved authorization information. The RBS is particularly useful for controlling access through small cells with limited capacity.

Disclosed is a method for enhancing a small cell. A method for enhancing a small cell in a terminal applying inter-site CA includes the steps of: causing a terminal to transmit the uplink control information (UCI) of at least one of the macro cells controlled by a macro cell base station through the macro cell; and causing the terminal to transmit the uplink control information of at least one of the small cells controlled by a small cell base station through the small cell.

The present invention relates to a method for random access to a small cell by means of a terminal. The method can include the steps of: receiving a plurality of settings for a random access preamble; selecting one of the plurality of settings; and transmitting the random access preamble according to the one selected setting. Here, a resource on which the random access preamble can be transmitted can be provided in plurality in one subframe, and the preamble transmitted on each resource is distinguishable.

A hybrid in-flight communications system integrates aircraft communications systems and traffic management of the aircraft air-to-ground communications and satellite communications to provide gate-to-gate connectivity to users on an aircraft. A technique for providing users with in-flight connectivity includes a first modem configured to process signals communicated with a non-terrestrial relay point. The apparatus includes a second modem configured to process signals communicated with a terrestrial relay point. The apparatus includes a wireless local area access node configured to communicate with user equipment on the aircraft and a small cell access node configured to communicate with user equipment on the aircraft. The apparatus includes a controller configured to manage first data streams between the small cell access node and the first modem and the second modem. The controller is configured to manage second data streams between the wireless local area access node and the first modem and the second modem. The apparatus may include avionics equipment.

A mesh network includes domain(s) of multiple nodes interconnected through links and in which there are gateway(s) connecting a domain to another network. The domain(s), their multiple nodes, and their links are part of a topology. A set of primary and backup routing paths, each including an ST that includes the selected gateway and route to that selected gateway for nodes in the domain, for a selected one of the gateway(s) is accessed or determined. Schedule(s) to be used by node(s) in the mesh network over one or more scheduling cycles are accessed or determined. Based on status of link(s) between nodes and on the schedule(s), switching is performed to a selected one of the primary or backup routing paths for the selected gateway. Routing in the mesh network is caused to be modified based on the selected routing path. Information is sent to nodes for the paths and schedules.

Objective methods for detecting and diagnosing small cell lung cancer (SCLC) are described herein. In one embodiment, the diagnostic method involves determining the expression level of an SCLC-associated gene that discriminates between SCLC cells and normal cells. In another embodiment, the diagnostic method involves determining the expression level of an SCLC-associated gene that distinguishes two major histological types of lung cancer, non-small cell lung cancer (NSCLC) and SCLC. Finally, the present invention provides methods of screening for therapeutic agents useful in the treatment of small cell lung cancer, methods of treating small cell lung cancer and method for vaccinating a subject against small cell lung cancer. Furthermore, the present invention provides chemotherapy resistant lung cancer- or SCLC-associated genes as diagnostic markers and / or molecular targets for therapeutic agent for these cancers. These genes are up-regulated in chemoresistant lung cancer or SCLC. Accordingly, chemoresistant lung cancer or SCLC can be predicted using expression level of the genes as diagnostic markers. As the result, any adverse effects caused by ineffective chemotherapy can be avoided, and more suitable and effective therapeutic strategy can be selected.

Disclosed are methods for sending and receiving ACK / NACK information, a base station, and a terminal. The method for sending ACK / NACK information comprises: dividing acknowledgement (ACK) / negative acknowledgement (NACK) information of multiple terminals into X groups according to a present indication parameter, X being a positive integer greater than or equal to 1; separately performing combined coding on ACK / NACK information corresponding to each group in the foregoing X groups, so as to obtain X first blocks of bits; and mapping the foregoing X first blocks of bits to a predetermined ACK / NACK physical source and sending the foregoing X first blocks of bits. By means of the present invention, reliable transmission of HARQ-ACK information of a terminal on the NCT is implemented, the reliability of transmission of uplink data in a Low Cost terminal is improved, and problems such as a conflict of PHICH resource allocation and ICIC of a frequency domain in a small cell are solved.

The invention relates to a method for efficiently discarding data packets destined to a mobile station connected to both a master base station and a secondary base station. The master base station configures a secondary discard function in a lower layer of the secondary base station, based on the master discard function in the higher layer of the master base station. The master base station forwards the data packet from the higher layer to the lower of the secondary base station. The secondary discard function of the lower layer at the secondary base station discards the received data packet upon expiry of the secondary timer started by the lower layer upon reception of the data packet from the higher layer at the master base station.

An improved shaker screen filter for a well fluid shale shaker includes a main frame arranged for being arranged in the well fluid shale shaker for screening, preferably under vibration, of drilling mud, wherein the mainframe is subdivided into a plurality of smaller cell frames, one or more cell plug filters with one or more layers of screen cloths on top of at least one support cloth or support layer, wherein each of the cell plug filter includes a cell plug filter frame arranged to be held in each of the cell corresponding frames of the main frame, wherein at least one of the cell plug filter frame includes a locking mechanism arranged for locking the cell plug filter frame, upon desire, in a preferred position in the cell frame, correspondingly releasing the cell plug filter frame from the cell frame.

Methods, systems, computer-readable media, and apparatuses for using a small cell as a reliable crowd-sourcing agent are presented. In some embodiments, a small cell installed at a known location may observe one or more wireless signals at the known location, wherein the small cell comprises a built-in network listen receiver for observing cellular downlink signals. Subsequently, the small cell may provide, to at least one crowdsourcing server, information that identifies the location and describes one or more detected properties of the one or more observed wireless signals. In at least one arrangement, the information provided to at least one crowdsourcing server is a Positioning Reference Signal (PRS) configuration based on an observed LTE downlink signals. In at least one arrangement, the information provided to at least one crowdsourcing server is configured to be used by the at least one crowdsourcing server in providing position assistance information.

The invention discloses a method and a system capable of adjusting parameters according to the moving speed of a terminal. The method comprises the steps: a mobile terminal can detect signal strength of a small serving cell and judge the current moving speed according to speed judgment rulers issued by a base station, system parameters are adjusted according to the moving speed, and the system parameters are small cell reselection threshold parameters or switching trigger duration parameters. The method and the system aim at defects of switching parameters based on user experience (UE) speed dynamic adjustment in the 3rd generation partnership project (3GPP) to provide the method based on UE moving speed judgment according to trend of small cell signal quality change in the current serving cell. By means of the method and the system, accuracy and timeliness of the UE speed judgment are improved, switching success rate of networks is improved, and user experience is improved.

One objective of the present invention is to provide uplink scheduling information reporting apparatus and System supporting multi-connectivity. Herein, a UE connected to multiple eNBs, the UE receives trigger configuration information about buffer status report of a logical channel group that a corresponding radio bearer belongs to, and radio bearer configuration information and uplink resource configuration information respectively corresponding to each of the multiple eNBs, when the BSR trigger condition of at least one of the multiple eNBs is satisfied, transmit to a corresponding eNB the buffer status report of the logical channel group that its corresponding radio bearer belongs to, so as to support uplink scheduling report in multi-connectivity. The reporting mechanism provides the serving eNB with information about data amount that can be transmitted in UL buffer of a UE, so as to support multi-connectivity, and enables macro cell to provide a better coverage of the control plane data and enables small cell to provide larger capacity.

Disclosed is a method for cell discovery. In a network in which a macro cell overlaps at least one small cell, when the carrier frequency used by the macro cell is different from the carrier frequency used by the small cell, the small cell transmits a discovery signal using the carrier frequency used by the macro cell, or the small cell transmits a discovery signal using a carrier frequency of the small cell that is different from the carrier frequency used by the macro cell.

A shadow RAM or “non-volatile SRAM” memory cell is implemented in a much smaller area by building the cell upward rather than outward. By stacking non-volatile storage devices above or below an SRAM cell, a smaller cell can be provided and result in a lower cost memory device. In certain embodiments, such a memory cell includes a pair of cross-coupled devices disposed on a first device layer and defining a pair of internal cross-coupled nodes, and a pair of non-volatile storage devices disposed on a second device layer above or below the pair of cross-coupled devices and coupled to the cross-coupled nodes.

A cell-specific dictionary is applied adaptively to adequate cells, where the cell-specific dictionary subsequently optimizes the handling of frequency-partitioned multi-dimensional data. This includes improved data partitioning with super cells or adjusting resulting cells by sub-dividing very large cells and merging multiple small cells, both of which avoid the highly skewed data distribution in cells and improve the query processing. In addition, more efficient encoding is taught within a cell in case the distinct values that actually appear in that cell are much smaller than the size of the column dictionary.

The invention discloses a user access mode selecting method under a cell heterogeneous network, and belongs to the field of communication. Users needing access under the cell heterogeneous network can select three access modes which are the macro cell access mode, the small cell access mode and the D2D relay access mode. The users needing access outside a small cell covering range can build D2D direct-connection communication with small cell users through the D2D relay access mode when meeting a certain condition, the small cell users serve as relays to have access to small base stations, and therefore service ranges of the small base stations are enlarged and user experience is enhanced. Meanwhile, the invention also provides the access mode selecting method and a relay selecting and channel and power distributing method under the D2D relay access mode, the problems of access mode selecting, relay selecting and channel and power distributing can be effectively solved, and energy efficiency of the heterogeneous network is improved.

A personal alarm system can be worn or carried by the user, may be activated at any time by the user and / or may be automatically activated to send a signal to any remote monitoring station on the network. The device identifies the user as well as the user's location within the monitored area. The alarm-sending unit is designed to fit within a box the size of a small cell phone or pager. The unit includes an ID memory for identifying the user, is programmable and has an on-board processor for generating a signal to a wireless transmitter for sending the signal to a to a local receiver for inputting the signal onto the network. A centralized, networked RF receiver is used with the personal alarm unit and one or more of these RF receivers may be installed in order to provided adequate coverage of the monitored area. The signals generated by the personal alarm are received by the RF receiver(s) and decoded, whereupon the system processor assembles a message, packetizes it as necessary, and sends it to one or more monitoring stations via the intervening network and network interface. The signals may be digitized where desired. A beacon generator may be used to identify location of the portable unit. The system may also employ a GPS generator to identify location.

A method is provided in one embodiment and includes receiving a network address associated with a wireless device at a first network element in which the network address identifies the wireless device on a first network, and receiving user credentials from a directory service associated with a second network. The user credentials identify a user associated with the wireless device on the second network. The method further includes associating the user credentials with the network address, and communicating a request message to a second network element. The request message includes a request for a user identifier identifying the user on a third network. The method further includes receiving a response message from the second network element including the user identifier, associating the user credentials with the user identifier, and storing the association of the user credentials and the user identifier in a whitelist.