[1] R Strunce, B Sorensen, T Mann. Training and tactical operationally responsive space (ORS) operations (TATOO)(8).

[2] C C Davis, I I Smolyaninov, S D Milner. Flexible optical wireless links and networks. Communications Magazine IEEE, 41, 51-7(2003).

[3] Z Sodnik, H Lutz, B Furch. Optical satellite communications in Europe. Proceedings of SPIE - The International Society for Optical Engineering, 7587, 4(2010).

[4] D Trondle, P M Pimentel, C Rochow. Alphasat-Sentinel-1A optical inter-satellite links: run-up for the European data relay satellite system. Proceedings of SPIE, 9739, 973902(2016).

[5] Report Concerning Space Data System Standards(2005).

[6] K E Wilson, D Antsos, L C Roberts. Development of the optical communications telescope laboratory: A laser communications relay demonstration ground station. October 9, 12(2012).

[7] Space acquisitions: DoD needs additional knowledge as it embarks on a new approach for transformational satellite communications system(2006).

[8] A Yamamoto, T Hori, T Shimizu. 2210. Proceedings of SPIE - Space Optics 1994: Space Instrumentation and Spacecraft Optics(1994).

[9] S Yamakawa, T Hanada, H Kohata. 6. Proceedings of SPIE, 7587, 75870(2010).

[10] T Jono, Y Takayama, K Shiratama. Overview of the inter-orbit and the orbit-to-ground laser communication demonstration by OICETS. Proceedings of SPIE, 6457, 645702(2007).

[12] 49. 14(18).

[13] V Kuzkov, Z Sodnik, S Kuzkov. Laser experiments with ARTEMIS satellite in cloudy conditions(14).

[14] T Tolkernielsen, G Oppenhauser. In-orbit test result of an operational optical intersatellite link between ARTEMIS and SPOT4, SILEX. High-Power Lasers and Applications, 4635, 1-15(2002).

[15] L Fang, U Vishkin, S D Milner. Bootstrapping free-space optical networks. IEEE Journal on Selected Areas in Communications, 24, 13-22(2005).

[16] I K Son, S Kim, S Mao. Building robust spanning trees in free space optical networks(10).

[17] H Zhou, A Babaei, S Mao. Algebraic connectivity of degree constrained spanning trees for FSO networks(13).

[18] Y Lu, Y Zhao, F Sun. Dynamic fault-tolerant routing based on FSA for LEO satellite networks. IEEE Transactions on Computers, 62, 1945-58(2013).

[19] H S Chang, B W Kim, C G Lee. Topological design and routing for low-Earth orbit satellite networks(995).

[20] V V Gounder, R Prakash, H Abuamara. Routing in LEO-based satellite networks(1999).

[21] D Fischer, D A Basin, T Engel. Topology dynamics and routing for predictable mobile networks(8).

[22] O Korcak, F Alagoz. Virtual topology dynamics and handover mechanisms in Earth-fixed LEO satellite systems. Computer Networks, 53, 1497-511(2009).

[23] R H Mauger, C Rosenberg. QoS guarantees for multimedia services on a TDMA-based satellite network. IEEE Communications Magazine, 35, 56-65(1997).

[24] E Ekici, I F Akyildiz, M D Bender. A distributed routing algorithm for datagram traffic in LEO satelitte networks. IEEE ACM Transactions on Networking, 9, 137-47(2001).

[25] Y Zheng, S Zhao, Y Liu. Topology control in self-organized optical satellite networks based on minimum weight spanning tree. Aerospace Science and Technology, 69, 449-57(2017).

[26] Y Zheng, S Zhao, Y Liu. Weighted algebraic connectivity maximization for optical satellite networks. IEEE Access, 5, 6885-93(2017).

[27] M Fiedler. Algebraic connectivity of graphs. Czechoslovak Mathematical Journal, 23, 298-305(1973).

[28] B Mohar. Eigenvalues, diameter, and mean distance in graphs. Graphs and Combinatorics, 7, 53-64(1991).

[29] S M Fallat, S Kirkland. Extremizing algebraic connectivity subject to graph theoretic constraints. Electronic Journal of Linear Algebra, 3, 7(1998).

[30] D Moskaoyama. Maximum algebraic connectivity augmentation is NP-hard. Operations Research Letters, 36, 677-9(2008).

[31] A Ghosh, S P Boyd. Growing well-connected graphs(6).

[32] H Wang. Robustness of networks. Delft University of Technology(2009).