32results about How to "Smooth evolution" patented technology

A Mobile Agent (MA), a Radio Access Network (RAN), and a network adaptation method are disclosed herein. The MA is connected to an access layer of an air interface protocol stack for a first network and an access layer of a Core Network (CN) interface protocol stack for a second network to adapt and forward signaling messages and data sent by a Mobile Station (MS) of the first network and a CN of the second network. In the network evolution process, the MA achieves backward compatibility of the MS and the network, and enables smooth evolution.

This invention relates to one wireless network layer transfer internet connection system and method, wherein, the system comprises wireless interface network and relative core network, wherein, the said wireless interface network comprises base station element; the wireless interface network function comprises wireless adapter, wireless interface internet servo and wireless gate; the said wireless adapter provides interface control function; the said wireless interface servo is to provide system information broadcast and transfer control function.

The invention discloses a network performance detection system. According to the invention, a measurement period is divided into a plurality of time slices; a plurality of shadow memories are correspondingly arranged for one state memory; therefore, in a measurement period, message dyeing operation is started for a plurality of service flows, the message dyeing operation of one service flow in each group of service flows is controlled to be started in each time slice, a system timestamp is stamped on a dyed message, and the system timestamp is sent to a server. Correspondingly, the invention further discloses a network performance testing method. According to the invention, the resources of the state memory can be flexibly expanded so as to meet the network performance test of more serviceflows.

The invention discloses a communication method and communication equipment for low-cost user equipment, wherein the communication method comprises that: a control station acquires low-cost user equipment information of the low-cost user equipment in a communication system; the control station generates strategy information of user equipment management based on the low-cost user equipment information; the control station communicates with the low-cost user equipment based on the strategy information of user equipment management. A problem which networking investment cost of telecommunication service providers is increased because a conventional network can not be effectively used for the communication of the low-cost user equipment can be solved by applying the communication method and the communication equipment. The communication method and the communication equipment can effectively save the cost for networking investment of the telecommunication service providers, and maintain stable customer resources as well as improving communication efficiency and effectiveness.

The invention discloses a two-layer network structured system and implementing method and the head compressing and lossless migrating methods thereof. Two layers of nodes comprise edge radio station (ERS) and IP access gateway (IAGW), where ERS is formed by cominging NodeB in a three-layer network structured telecom system with radio network controller (RNC). In various protocol entities on the two layers of nodes, PDCP'entity on IAGW comprises head compression module and RLC' protocol entity on ERS comprises lossless migrating module. That is to say, head compression module in PDCP entity moves up to IAGW; lossless migrating module in PDCP entity moves down to radio link control protocol entity on ERS. And the invention also discloses head compression method and lossless migrating method executed in the improved network structure. In the two-layer node structure of network evolution, the invention adopts new user plane protocol stack and can raise service data transmitting efficiency.

The invention provides a wireless frame production method of an evolution system compatible with diverse bandwidth Wimax systems, sub-carrier wave and circulation prefix of the compatible Wimax system are the same as each other, the method comprising the following steps of: (a) determining that number of rapid Fourier inverse conversion should be larger than or equal to sum of IFFT numbers corresponding to each compatible Wimax system; multiplying the number by sub-carrier wave spacing of the Wimax system to obtain sampling frequency; (b) coding N sampling points of the obtained transmission signal and using OFDM technology to modulate so that the frequency range of the evolution system covers the frequency range of each compatible Wimax system; (c) arraying the sampling points carrying information of each compatible Wimax system to the positions correposnidng to the frequency range of respective system, these positions are not superposed mutually; (d) performing IFFT arithmetic to the arrayed sampling points to convert into OFDM symbols, and adding the circulation prefixes having the length same as the Wimax system on the OFDM symbols and then sending out.

The invention provides radio frequency remote equipment and a distributed base station. In the distributed base station, while sending an operation, the radio frequency remote equipment receives first standard data and processes the first standard data into first transmission data, the first transmission data is subjected to base band processing to obtain second transmission data, and then the second transmission data is subjected to radio frequency processing to obtain an antenna signal; and while receiving the operation, the ratio frequency remote equipment carries out reverse radio frequency processing on the antenna signal received by an antenna to obtain the second transmission data, the obtained second transmission data is subjected to the reverse base band processing to obtain the first transmission data; and the first transmission data obtained by the reverse base band processing is processed into the first standard data.

Provided is an indoor distribution system MIMO single cable covering method and system. An MIMO host machine enables one of the two paths of signals output by an LTE two-channel RRU to be combined with signals of an original distribution system, and the other path of signals to be subjected to frequency conversion; the two paths of signals are then combined into new signals which are then transmitted to an MIMO slave machine through a feeder line of the original distribution system; the MIMO slave machine enables the combined signals to be separated, and the signals which are subjected to frequency conversion are separated out and the frequency of the signals is reduced; and the signals are sent out by utilizing one path of single-polarized antenna or one path of a dual-polarized antenna, and the other path of signals are sent out by utilizing the other path of single-polarized antenna or the other path of the dual-polarized antenna, so that under the condition of not changing the structure of the original indoor distribution system, complete LTE MIMO characteristics are achieved. According to the technical scheme of the invention, with the indoor single cable covering method, the complete LTE MIMO characteristics are achieved without changing the structure of the original indoor distribution system, and engineering reconstruction amount and construction cost are effectively reduced.

An evolution system, frame compatible with diverse frequency range Wimax systems and a production method thereof are disclosed, sub-carrier wave and circulation prefix of the compatible Wimax system are the same as each other, number N of the evolution system IFFT is determined to be larger than or equal to sum of numbers of IFFTs corresponding to each compatible Wimax system; in accordance with the number and spacing of the sub-carrier wave of the Wimax system, transmission rate of the evolution system is obtained; data points of the signal are transmitted according to the transmission rate as well as coded and modulated; the data points carrying information of diverse frequency range Wimax systems are arrayed at diverse positions of N point IFFT in terms of each system frequency range, these position are not mutually superposed; the arrayed N data points is performed IFFT operation of N point at each time so as to transform to OFDM time frequency symbols, and the circulation prefix having the length same as the Wimax system is added to the OFDM symbols which is then transmitted; a plurality of symbols combine into a frame. The invention enables the terminals of diverse frequency range Wimax systems to be accessible to the evolution system.

The invention provides a passive optical network compatible device. Two uplink burst clock and data recovery units recover received uplink data according to two standards and sends the recovered uplink data to corresponding uplink delimiting, descrambling and forward error correction (FEC) decoding units, the two uplink delimiting, descrambling and forward error correction (FEC) decoding units delimit the received recovered uplink data according to two standards, after the delimiting is successful, a processed GTC frame is sent to a gigabit passive optical network transmission convergence (GTC) deframing unit, and finally the GTC deframing unit sends the data obtained by deframing to different processing units for processing. The invention also discloses a realizing method compatible with a passive optical network and an optical line terminal.

The invention discloses a passive optical-network compatible device. A first mode and a second mode are used to recover uplink data of an optical network unit (ONU), difference to single end processing is performed on the recovered uplink data and the uplink data is converted into single end data. Downsampling processing is performed on the single end data which is recovered through using the second mode and is converted via difference to single end conversion and the data is converted into the single end data after downsampling. A first uplink channel and a second uplink channel adopt different standards to process the single end data and the single end data after downsampling. After delimitation is performed successfully, descrambling and forward error correction (FEC) decoding processing are performed and a processed gigabit passive optical network transmission convergence (GTC) frame is sent. The invention also discloses a passive optical-network compatible realization method and an optical line terminal.