Abstract: A user equipment is provided with connection to a first mobile service network providing circuit-switched services. A first protocol module communicates with the first mobile service network. A circuit-switch tunneling control protocol module establishes a circuit-service tunnel to a second mobile service network providing packet-switched services. A circuit-switch tunneling data protocol module transmits a circuit-service tunneling message from the first protocol module to the second mobile service network via the circuit-service tunnel.

Abstract: A mobile communication device for load balancing management is provided. In the mobile communication device, a wireless module receives data communication services via a first service node and receives a plurality of system information messages from the first service node and a plurality of second service nodes, wherein each of the system information messages has a forward-link quality threshold corresponding to a respective service node. Also, a controller determines a traffic type of the data communication services and a signal indicator of the first service node, and determines whether the signal indicator is less than the forward-link quality threshold corresponding to the first service node. In response to that the signal indicator is less than the forward-link quality threshold corresponding to the first service node, the controller switches the data communication services from the first service node to one of the second service nodes according to the traffic type.

Abstract: Communication transmission methods and systems are provided. Firstly, a base station is configured to set an indicator for determining whether a first wireless communication technology and a second communication technology are allowed simultaneously for transmissions by the base station. Then, a user equipment, is configured to receive a voice call by a user equipment from the base station and determine whether to answer the voice call using the first wireless communication technology or the second communication technology, when the first wireless communication technology and the second communication technology are not allowed simultaneously shown by the indicator.

Abstract: A communication method, an access network device and a communication device using the same method, and a communication system are proposed. According to an embodiment, the communication method can include following step. An access network device determines whether there is any femto cell within the coverage area thereof. when there is at least one femto cell within the coverage area thereof, the access network device obtains femto cell information of the at least one femto cell; and delivers the femto cell information to at least one terminal device within the coverage area thereof, where the femto cell information includes an indication of the at least one femto cell, at least one femto cell identifier and at least one carrier frequency of the at least one femto cell.

Abstract: A communication method and a communication device using the same method are proposed. The proposed communication method is adapted to a machine-to-machine communication device (M2M device) with low mobility, and includes following steps: reporting that the M2M device is low mobility to a communication network; reporting a sector, in which the M2M device is located, to the communication network; and transmitting a paging message only in the sector to the M2M device.

Abstract: A mobile communication device for application-based class identification is provided with a wireless module and a controller module. The wireless module performs wireless transmissions and receptions to and from a service network. The controller module determines a class of a Machine-to-Machine (M2M) application, and determines a priority level corresponding to the class of the M2M application. Also, the controller module initiates the M2M application via the wireless module according to at least one M2M parameter corresponding to the priority level.

Abstract: A system for allocating PRACH (Physical Random Access Channel) resources is provided in the invention. The system comprises a plurality of wireless terminals and a base station. The base station is configured to allow the plurality of wireless terminals to share an access slot comprising a plurality of M2M (Machine to Machine) preambles and a plurality of H2H (Human to Human) preambles, and configured to separate the plurality of M2M preambles from the plurality of H2H preambles.

Abstract: A data processing method for a wireless communication system with a plurality of terminals, an intermediate device and a service network, the method comprising: sending a plurality of machine type communication (MTC) data flows from the plurality of terminals to the intermediate device; performing a data multiplexing operation by the intermediate device on the plurality of machine type communication data flows to generate a multiplexed data flow; and the service network receiving the multiplexed data flow.

Abstract: A Machine Type Communication (MTC) method for an MTC device to configure a plurality of MTC logical channels associated with an MTC application is provided The method comprises the steps of: configuring, in a Medium Access Control (MAC) layer, the MTC logical channels independently from a Common Control Channel (CCCH), a Dedicated Control Channel (DCCH), and a Dedicated Traffic Channel (DTCH), wherein the MTC logical channels include a Machine Type Communication Traffic Channel (MTCTCH) and a Machine Type Communication Control Channel (MTCCCH); carrying uplink and downlink traffic data dedicated for the MTC application executed by the MTC device in the MTCTCH; and carrying uplink and downlink control data dedicated for the MTC application executed by the MTC device in the MTCCCH.

Abstract: A mobile communications device with a wireless module and a controller module for performing an enhanced access procedure is provided. The wireless module performs wireless transmissions and receptions to and from a cellular station of a service network. The controller module transmits a random access preamble to the cellular station via the wireless module, receives a random access response message corresponding to the random access preamble from the cellular station via the wireless module, and transmits a scheduled transmission message including the MTC (machine type communication) data from the cellular station via the wireless module, in response to the random access response message. Then, the controller module completes the enhanced access procedure in response to receiving a contention resolution message from the cellular station via the wireless module.

Abstract: A mobile communications device with a wireless module and a controller module for performing a buffer status reporting procedure is provided. The wireless module performs wireless transmissions and receptions to and from a cellular station of a service network. The controller module receives machine type communication (MTC) data, determines whether to trigger a buffer status report (BSR) according to a comparison result of the data size of the MTC data and a threshold value when the MTC data arrives at an empty transmission buffer, and if so, transmits the BSR to the cellular station via the wireless module.

Abstract: A method for reducing signaling overhead in user equipment (UE) connected to a base station is provided. The method includes: when the UE sends Radio Resource Control (RRC) layer messages to the base station, the UE compresses RRC layer messages and sends the compressed RRC layer messages to the base station; and when the UE receives the compressed RRC layer messages from the base station, the UE decompresses the compressed RRC layer messages received from the base station.

Abstract: A mobile communication device for access procedure enhancement is provided. In the mobile communication device, a wireless module performs wireless transmissions and receptions to and from a service network. Also, a controller module transmits an access probe to the service network via the wireless module, and retransmits the access probe in response to not receiving an acknowledgement of the access probe from the service network via the wireless module in a waiting period of time. The waiting period of time is determined according to a coherence-time related offset.

Abstract: A mobile communication device for managing the operation status of wireless transmissions and receptions is provided. In the mobile communication device, a wireless module performs the wireless transmissions and receptions. Also, in the mobile communication device, a controller module activates the wireless module to transmit a scheduling request message to the service network, and keeps the wireless module activated for the wireless receptions in a first predetermined period of time subsequent to the transmission of the scheduling request message.

Abstract: A mobile communication device for load balancing management is provided. In the mobile communication device, a wireless module receives data communication services via a first service node and receives a plurality of system information messages from the first service node and a plurality of second service nodes, wherein each of the system information messages has a forward-link quality threshold corresponding to a respective service node. Also, a controller determines a traffic type of the data communication services and a signal indicator of the first service node, and determines whether the signal indicator is less than the forward-link quality threshold corresponding to the first service node. In response to that the signal indicator is less than the forward-link quality threshold corresponding to the first service node, the controller switches the data communication services from the first service node to one of the second service nodes according to the traffic type.

Abstract: A circuit service tunneling system is provided. The circuit service tunneling system has a first and a second mobile service network, and a user equipment. The first mobile service network provides packet-switched domain services and the second mobile service network provides circuit-switched domain services. An interworking system in the second mobile service network interconnects the first mobile service network with the second mobile service network, by connecting to a mobility management entity in the first mobile service network, to enable the first mobile service network to provide the circuit-switched domain service to the user equipment via the second mobile service network.

Abstract: A user equipment is provided with connection to a first mobile service network providing circuit-switched services. A first protocol module communicates with the first mobile service network. A circuit-switch tunneling control protocol module establishes a circuit-service tunnel to a second mobile service network providing packet-switched services. A circuit-switch tunneling data protocol module transmits a circuit-service tunneling message from the first protocol module to the second mobile service network via the circuit-service tunnel.