Abstract: An object of the present invention is to provide a mobile terminal testing apparatus capable of improving operability. A mobile terminal testing apparatus according to the present invention is a mobile terminal testing apparatus (1) which uses one of a plurality of component carriers in carrier aggregation as a primary component carrier and the other component carriers as secondary component carriers, and makes a call connection with a mobile terminal (2) to test the carrier aggregation, the mobile terminal has a local oscillation frequency in a continuous frequency band from the primary component carrier to the secondary component carriers, and the input unit (15) collectively sets the desired parameters for the continuous frequency band.

Abstract: An object of the present invention is to provide a mobile terminal testing apparatus capable of improving operability. A mobile terminal testing apparatus according to the present invention is a mobile terminal testing apparatus (1) which uses one of a plurality of component carriers in carrier aggregation as a primary component carrier and the other component carriers as secondary component carriers, and makes a call connection with a mobile terminal (2) to test the carrier aggregation, the mobile terminal has a local oscillation frequency in a continuous frequency band from the primary component carrier to the secondary component carriers, and the input unit (15) collectively sets the desired parameters for the continuous frequency band.

Abstract: According to one embodiment, a mobile terminal testing device which tests a mobile terminal including a plurality of transmitting antennas by transmitting/receiving radio signals between the mobile terminal testing device and the mobile terminal, includes a radio signal processing module configured to transmit and receive radio signals to and from the mobile terminal and a controller configured to cause the mobile terminal to switch one from another among the plurality of transmitting antennas by a predetermined radio signal transmitted to the mobile terminal via the radio signal processing module.

Abstract: In a case where testing of uplink carrier aggregation that is a frequency arrangement in which a primary component carrier and a secondary component carrier are contiguous is performed, a control unit 15 causes a call processing unit 12 to configure a transmission signal of a mobile terminal 2 in such a manner that the transmission signal satisfies a prescribed condition for user data transmission, and causes a wireless signal measurement unit 13 to detect a local oscillation frequency from a band that includes a frequency band in which a primary component carrier and a secondary component carrier are contiguous, using a reception signal that satisfies the prescribed condition for user data transmission.

Abstract: According to one embodiment, a mobile terminal testing device which tests a mobile terminal including a plurality of transmitting antennas by transmitting/receiving radio signals between the mobile terminal testing device and the mobile terminal, includes a radio signal processing module configured to transmit and receive radio signals to and from the mobile terminal and a controller configured to cause the mobile terminal to switch one from another among the plurality of transmitting antennas by a predetermined radio signal transmitted to the mobile terminal via the radio signal processing module.

Abstract: In a case where testing of uplink carrier aggregation that is a frequency arrangement in which a primary component carrier and a secondary component carrier are contiguous is performed, a control unit 15 causes a call processing unit 12 to configure a transmission signal of a mobile terminal 2 in such a manner that the transmission signal satisfies a prescribed condition for user data transmission, and causes a wireless signal measurement unit 13 to detect a local oscillation frequency from a band that includes a frequency band in which a primary component carrier and a secondary component carrier are contiguous, using a reception signal that satisfies the prescribed condition for user data transmission.

Abstract: Provided is a mobile terminal test apparatus that can shorten a carrier aggregation testing time. The mobile terminal test apparatus includes a call processing units 12-0 to 12-n that transmits and receives a wireless signal between each of the call processing units 12-0 to 12-n and a mobile terminal 2, and makes a call connection suitable for testing conditions as a component carrier between each of the call processing units 12-0 to 12-n and the mobile terminal 2, and a control unit 15 that causes the mobile terminal 2 to perform a handover, and that applies parameters for a SCC that is designated, as parameters for a PCC that is a handover destination, to the call processing unit 12-0 that corresponds to a PCC, and applies parameters for the pre-handover PCC to the call processing unit 12-n that corresponds to the SCC that are designated and thus connects the SCC.

Abstract: Provided is a mobile communication terminal test system that transmits a test signal formed by a plurality of downlink component carriers including a primary component carrier (DL_CC1) and a secondary component carrier (DL_CC2) to a mobile communication terminal to test the mobile communication terminal. The mobile communication terminal test system includes a primary test device that transmits first communication data including first test data to the mobile communication terminal using the primary component carrier of the test signal and a secondary test device that transmits second communication data including second test data to the mobile communication terminal using the secondary component carrier of the test signal.

Abstract: Provided is a mobile terminal test apparatus that can shorten a carrier aggregation testing time. The mobile terminal test apparatus includes a call processing units 12-0 to 12-n that transmits and receives a wireless signal between each of the call processing units 12-0 to 12-n and a mobile terminal 2, and makes a call connection suitable for testing conditions as a component carrier between each of the call processing units 12-0 to 12-n and the mobile terminal 2, and a control unit 15 that causes the mobile terminal 2 to perform a handover, and that applies parameters for a SCC that is designated, as parameters for a PCC that is a handover destination, to the call processing unit 12-0 that corresponds to a PCC, and applies parameters for the pre-handover PCC to the call processing unit 12-n that corresponds to the SCC that are designated and thus connects the SCC.

Abstract: Provided is a mobile communication terminal test system that transmits a test signal formed by a plurality of downlink component carriers including a primary component carrier (DL_CC1) and a secondary component carrier (DL_CC2) to a mobile communication terminal to test the mobile communication terminal. The mobile communication terminal test system includes a primary test device that transmits first communication data including first test data to the mobile communication terminal using the primary component carrier of the test signal and a secondary test device that transmits second communication data including second test data to the mobile communication terminal using the secondary component carrier of the test signal.

Abstract: A test apparatus for a mobile communication terminal is provided with a pseudo base station and display and control units. The control unit includes a analysis unit and a tag addition unit. The analysis unit acquires and analyzes the messages from the base station to take out information from the messages. The tag addition unit detects a group of series messages which have a mutual association and are consecutive in time sequence among the messages analyzed and to add a tag for identifying each group of messages to a detected group of messages. The control unit displays the tag together with the series of messages so as to identify the respective groups of messages.

Abstract: A test apparatus for a mobile communication terminal is provided with a pseudo base station and display and control units. The control unit includes a analysis unit and a tag addition unit. The analysis unit acquires and analyzes the messages from the base station to take out information from the messages. The tag addition unit detects a group of series messages which have a mutual association and are consecutive in time sequence among the messages analyzed and to add a tag for identifying each group of messages to a detected group of messages. The control unit displays the tag together with the series of messages so as to identify the respective groups of messages.

Abstract: The present invention provides a test apparatus for a 64B/66B encoding process capable of precisely performing a test with a high reproducibility on a certain pattern of a 64B/66B encoder or decoder. A frame generator generates frame data in a layer higher than a physical coding sublayer of Ethernet (registered trademark) and inputs the frame data to a 64B/66B encoder such that the 64B/66B encoder performs a 64B/66B encoding process of the physical coding sublayer with respect to the frame data. A sequence pattern generator generates a certain 66B sequence pattern written in advance, and a controller writes a desired sequence pattern in the sequence pattern generator and, at the same time, controls a data selector to select one of data encoded by the 64B/66B encoder and a sequence pattern output from the sequence pattern generator and to provide the selected one to a test subject.

Abstract: The present invention provides a test apparatus for a 64B/66B encoding process capable of precisely performing a test with a high reproducibility on a certain pattern of a 64B/66B encoder or decoder. A frame generator generates frame data in a layer higher than a physical coding sublayer of Ethernet (registered trademark) and inputs the frame data to a 64B/66B encoder such that the 64B/66B encoder performs a 64B/66B encoding process of the physical coding sublayer with respect to the frame data. A sequence pattern generator generates a certain 66B sequence pattern written in advance, and a controller writes a desired sequence pattern in the sequence pattern generator and, at the same time, controls a data selector to select one of data encoded by the 64B/66B encoder and a sequence pattern output from the sequence pattern generator and to provide the selected one to a test subject.