## 8 Conclusions and Future Work
Syst._**2016**, _2016_, 1-9. [CrossRef]
* Sundararaj and Velhayan (2010) Sundararaj, L.; Velhayan, P. Throughput Enhancement in AUDTWMN Using Throwboxes--An Overview. _Int. J. Comput. Inf. Eng. World Acad. Sci. Eng. Technol._**2010**, \(4\), 1583-1591. * Arora and Jain (2018) Arora, P.; Jain, S. Underwater sensor network delay aware routing protocols: A survey. In Proceedings of the 3 rd International Conference on Internet of Things and Connected Technologies (ICIoTCT), Jaipur, India, 26-27 March 2018; pp. 26-27. * Trifunovic et al. (2017) Trifunovic, S.; Kouyoumdjieva, S.T. ; Distl, B.; Pajevic, L.; Karlsson, G.; Plattner, B. A Decade of Research in Opportunistic Networks: Challenges, Relevance, and Future Directions. _IEEE Commun. Mag._**2017**, _55_, 168-173. [CrossRef]
* Marshall and F.F. Recent progress in moving cognitive radio and services to deployment. In Proceedings of the 2008 International Symposium on a World of Wireless, Mobile and Multimedia Networks, Newport Beach, CA, USA, 23-26 June 2008. * Li and Bartos (2014) Li, Y.; Bartos, R. A survey of protocols for intermittently connected delay-tolerant wireless sensor networks. _J. Netw. Comput. Appl._**2014**, _411_-423. [CrossRef]
* Matracia et al. (2022) Matracia, M.; Saeed, N.; Kishk, M.A. ; Alouini, M.-S. Post-disaster communications: Enabling technologies, architectures, and open challenges. _IEEE Open J. Commun. Soc._**2022**, \(3\), 1177-1205. [CrossRef]
* Araniti et al. (2010) Araniti, G.; Bisio, I.; De Sanctis, M. State of the art and innovative communications and networking solutions for a reliable and efficient Interplanetary Internet. _Int. J. Adv. Internet Technol._**2010**, \(3\), 118-127. * Gou et al. (2016) Gou, L.; Zhang, G.; Zhang, W.; Bian, D. Cluster-based architecture and network model for InterPlaNetary Internet. _J. Commun. Inf. Netw._**2016**, \(1\), 51-66. [CrossRef]
* Debnath et al. (2022) Debnath, S.; Arif, W.; Roy, S.; Baishya, S.; Sen, D. A comprehensive survey of emergency communication network and management. _Wirel. Pers. Commun._**2022**, _124_, 1375-1421. [CrossRef]
* Dalal et al. (2021) Dalal, R.; Khai, M.; Anzola, J.P.; Garcia-Diaz, V. Proliferation of opportunistic routing: A systematic review. _IEEE Access_**2021**, _10_, 8585-8583. [CrossRef]
* Babich et al. (2019) Babich, F.; Cominsso, M.; Cuttin, A.; Marchese, M.; Patrone, F. Nanosatellite-5G Integration in the Millimeter Wave Domain: A Full Top-Down Approach. _IEEE Trans. Mob. Comput._**2019**, _19_, 390-404. [CrossRef]
* Khabbaz et al. (2012) Khabbaz, M.J.; Fawaz, W.F. ; Assi, C.M. Modeling and Delay Analysis of Intermittently Connected Roadside Communication Networks. _IEEE Trans. Veh. Technol._**2012**, _61_, 2698-2706. [CrossRef]
* Caini et al. (2011) Caini, C.; Cruickshank, H.; Farrell, S.; Marchese, M. Delay- and Disruption-Tolerant Networking (DTN): An Alternative Solution for Future Satellite Networking Applications. _Proc. IEEE_**2011**, _99_, 1980-1997. [CrossRef]
* Lu et al. (2010) Lu, R.; Lin, X.; Zhu, H.; Shen, X.; Preiss, B. Pi: A practical incentive protocol for delay tolerant networks. _IEEE Trans. Wirel. Commun._**2010**, \(9\), 1483-1493. [CrossRef]
* Chen and Shen (2014) Chen, K.; Shen, H. DTN-FLOW: Inter-Landmark Data Flow for High-Throughput Routing in DTNs. _IEEE/ACM Trans. Netw._**2014**, _23_, 212-226. [CrossRef]
* Falcao et al. (2021) Falcao, D.; Salles, R.; Maranhao, P. Performance evaluation of disruption tolerant networks on warships' tactical messages for secure transmissions. _J. Commun. Netw._**2021**, _23_, 473-487. [CrossRef]
* Huang et al. (2012) Huang, M.; Chen, S.; Zhu, Y.; Wang, Y. Topology Control for Time-Evolving and Predictable Delay-Tolerant Networks. _IEEE Trans. Comput._**2012**, _62_, 2308-2321. [CrossRef]* (85) Ochiai, H.; Ishizuka, H.; Kawakami, Y.; Esaki, H. A DTN-Based Sensor Data Gathering for Agricultural Applications. _IEEE Sens. J._**2011**, _11_, 2861-2868.