d the campus. However, the data transmission rate should be reduced on the road between the rest house and the library, which also requires the application of seamless adaptive MIMO transmission. 1,10) (2,10) (3,10) (4,10) (5,10) Library Rest(House (5.7) (1,7) (5,6) (1.6) (5.5) (1.5) (5.4) (1,4) (1,3) Teaching Building (1.2) Golden Sunshine Figure 2.14 Test map of campus for test of FuTURE TDD trial system. © 2009 by Taylor & Francis Group, LLC Long Term Evolution: 3GPP LTE Radio and Cellular Technology Figure 2.15 BLER performance around the campus. 2.2.3.3.2 Single-Frequency Networking Test In the FuTURE TDD trial network, a simplified form of the SFFR scheme was performed and tested based on the distributed cellular network. Figure 2.16 shows the scenario of networking and the test procedure with a stationary terminal and a mobile terminal. According to the figure, when MT2 moves around the campus, it is first located in the same cell with MT1, but then in different cells. Taking advantage of SFFR, the two terminals first occupy half of the frequency resources Occupy half of the frequency Man Kia Road Occupy all the frequency resource in cell 1 resource in cell 2 50 Mbps for each user 100 Mbps for single user Occupy all the frequency resource in cell 1 100 Mbps for single user Cell 2 Occupy half of the frequency Single cell single user Hando resource in cell 1 Single cell two users 50 Mbps for each user Two cells two users Occupy half of the frequency resource in cell 1 Distributed antenna 50 Mbps for each user Arrays Occupy half of the frequency Adaptive MIMO resource in cell 1 Seamless handover 50 Mbps for each user Occupy half of the frequency Single frequency resource in cell 1 Networking 100 Mbps for single user Figure 2.16 Test of SFFR with single-frequency networking. C 2009 by Taylor & Francis Group, LLC Evolution from TD-SCDMA to FuTURE Figure 2.17 HDTV service demo and videoconference service demo. in one cell and then occupy all the frequency resources in each cell, which makes the scheme of single-