Abstract: The disclosure is directed to a method of handling conditional handover with a candidate secondary cell group (SCG), a source master node, and a user equipment, which may be used to solve the above technical problems. The method includes: determining, by the source MN, a first execution condition of a first candidate primary cell (PCell); and receiving, by the source MN from a first candidate MN, a parameter of a second execution condition of a first candidate primary SCG cell (PSCell).

Abstract: Provided are a method of conditional reconfiguration and a user equipment (UE) using the same. The method is adapted to a user equipment and includes the following steps. A conditional reconfiguration including at least one candidate cell is received. A notification to network is transmitted in response to a release condition corresponding to one of the at least one candidate cell is fulfilled.

Abstract: A method and a user equipment of performing resource switching in an unlicensed spectrum are provided. A current set of resources in the unlicensed spectrum is utilized by a UE for performing LBT attempts for transmission of an RACH message to a base station. One or more LBT attempts for transmissions from the UE to the base station are performed over the current set of resources during a current RACH procedure. The current set of resources is switched to a new set of resources in the unlicensed spectrum to be utilized by the UE in a new RACH procedure after a failure count reaches a pre-configured threshold during the current RACH procedure. The failure count is calculated at least based on a count of LBT failure over the current set of resources during the current RACH procedure.

Abstract: A user equipment (UE), a communication system, and a handling method for handover failure are provided. The handover procedure of the UE from a source cell to one or more configured target cells fail. In the method, in response to the handover procedure failing, a cell selection procedure to select a suitable cell is performed, where the cell selection procedure is configured to perform a connection re-establishment procedure. Whether to continue the connection re-establishment procedure is determined according to a determining result of whether a suitable cell is one configured target cell.

Abstract: Provided are a method for handling secondary cell group (SCG) failure and a user equipment (UE) using the same. The method is applied to the UE and includes the following steps. The UE is configured with a conditional PSCell change (CPC) configuration in which the CPC configuration includes at least one candidate target PSCell. In response to an occurrence of an SCG failure, a PSCell change for changing to the at least one candidate target PSCell is performed.

Abstract: A user equipment (UE), a communication system, and a handling method for handover failure are provided. The handover procedure of the UE from a source cell to one or more configured target cells fail. In the method, in response to the handover procedure failing, a cell selection procedure to select a suitable cell is performed, where the cell selection procedure is configured to perform a connection re-establishment procedure. Whether to continue the connection re-establishment procedure is determined according to a determining result of whether a suitable cell is one configured target cell.

Abstract: A method and a user equipment of performing resource switching in an unlicensed spectrum are provided. A current set of resources in the unlicensed spectrum is utilized by a UE for performing LBT attempts for transmission of an RACH message to a base station. One or more LBT attempts for transmissions from the UE to the base station are performed over the current set of resources during a current RACH procedure. The current set of resources is switched to a new set of resources in the unlicensed spectrum to be utilized by the UE in a new RACH procedure after a failure count reaches a pre-configured threshold during the current RACH procedure. The failure count is calculated at least based on a count of LBT failure over the current set of resources during the current RACH procedure.

Abstract: A compressed pattern matching based on LZW compressed sequences with a simple bitmap-based realization of the Amir-Benson-Farach algorithm is provided. A suffix trie for a searched pattern is determined and a LZW trie is constructed for a compressed data. For each data chunk in the compressed data a variety of information is determined and a node is added to the LZW trie. The queries used to determine the information are implemented through bitmaps, and allowing identification of all occurrence of the searched pattern.

Abstract: A compressed pattern matching based on LZW compressed sequences with a simple bitmap-based realization of the Amir-Benson-Farach algorithm is provided. A suffix trie for a searched pattern is determined and a LZW trie is constructed for a compressed data. For each data chunk in the compressed data a variety of information is determined and a node is added to the LZW trie. The queries used to determine the information are implemented through bitmaps, and allowing identification of all occurrence of the searched pattern.