| References: [1] Kaleem, Z. et al. UAV-Empowered Disaster-Resilient Edge Architecture for Delay-Sensitive Communication. Cornell, USA.
[2] Olasupo, K.O., Kostanic, I. & Olasupo, T.O. (2017). “Performance evaluation of mission critical communications services over LTE networks,” IEEE ICPCSI. Chennai, India, pp. 273–278.
[3] Oueis, J., Conan, V., Lavaux, D., Stanica, R. & Valois, F. (2017) Overview of LTE isolated E-UTRAN operation for public safety. IEEE Communications Standards Magazine, 1, 98–105.
[4] 3GPP, p. TS23.179. Functional Architecture and Information Flows to Support Mission Critical Communication Services, Stage 2, Release 13, v.13.5.0 (2017).
[5] 3GPP, p. TS22.280. Mission Critical Common Requirements (MCCoRe), Stage 1, Release 16 (2018), Vol. 6, Pencheva, I., Atanasov, D. & Kireva, K. Nikolova. Network Slicing: A Mobility Management Perspective SGEM 2018, Vol. 18, Green Design and Sustainable Architecture, pp. 641–648.
[6] Orsino, A. et al. (2017) Effects of heterogeneous mobility on D2Dband drone-assisted mission-critical MTC in 5G. IEEE Communications Magazine, 55, 79–87.
[7] Ye, Q., Li, J., Qu, K., Zhuang, W., Shen, X.S. & Li, X. (2018) End-to- end quality of service in 5G networks: Examining the effectiveness of a network slicing framework. IEEE Vehicular Technology Magazine, 13, 65–74.
[8] Kekki, S. et al. (2018). MEC in 5G Networks ETSI White Paper no. 28.
[9] Guist, F. et al. (2018). MEC Deployments in 4G and Evolution Towards 5G [ETSI white paper].
[10] Skarin, P., Tärneberg, W., Årzen, K. & Kihl, M. (2018) Towards mission-critical control at the edge and over 5G IEEE International Conference on Edge Computing (EDGE), San Francisco, 2018, pp. 50–57.
[11] Solozabal, R., Sanchoyerto, A., Atxutegi, E., Blanco, B., Fajardo, J.O. & Liberal, F. (2018) Exploitation of mobile edge computing in 5G distributed mission-critical push-to-talk service deployment. IEEE Access, 6, 37665–37675. |
