602a4b3abdcaf.pdf
DOI:
Mavjud emas
1. Tuchkin A.V. Principe of the channel level protocol for the packet transmission of heterogeneous traffic over low-speed channels // T-Comm: Telecommunications and transport. 2008. Т. 2. № 3. Pages 31-33.
2. Ponachugin A.V., Gusev I.V. Modeling of radio access systems in multiservice communication networks. Modeling, optimization and information technologies. 2018. Т. 6. № 1 (20). Pages 118-130.
3. Moshak N.N. Estimation of influence of protocols of an additional channel level on parameters of transport system of an info-communication network on technologies IP-KOS // Trudy of educational institutions of communication. 2006. № 175. Pages 62-72.
4. Menshikh V.V., Tolstikh A.V. // Software implementation of a simulation model of information security threats proliferation in a computer network based on the use of Petri networks // Collection: Information Counteraction to Extremism and Terrorism of the Material of the All-Russian Scientific and Practical Conference. 2015. Pages 124-127.
5. Kushnazarov, F.I. Model of organization of the repeated transmissions in the channels exposed to the interference // Modern science: actual problems of theory and practice. Series: Natural and Technical Sciences. 2015. № 12. Pages 62-67.
6. A.G. Kiryanov. Development and modeling of methods used in the protocols of the channel level of the wi-fi networks for the delivery of the real time video streams // Cand. A.A. Kharkevich RAS. Moscow, 2016.
7. Goncharova, D.S.; Ulyanov, A.V. Analysis of data transmission protocols in the backbone networks // Collection: Actual problems of info telecommunications in science and education collection of scientific articles in the international scientific-technical and scientific-methodical conference. 2016. Pages 335-338 (in Russian).
8. Vedenyapin V.I. Development of local information networks by means of Petri networks // In the collection: Actual problems of mathematical, natural science and technical knowledge: priority youth research in the material of the International scientific conference for students and young people in science and technology "Science 2020". 2018. Pages 166-170.
9. Yoon Z., Frese W., Briess K. Design and implementation of a narrow-band intersatellite network with limited onboard resources for IoT // Sensors. 2019. Т. 19. № 19. Page 4212.
10. Gupta V. On estimation across analog erasure links with and without acknowledgements//IEEE Transactions on Automatic Control. 2010. Т. 55. № 12. Pages 2896-2901.
11. Letor N., Blondia C. Cross-layer tuning of the neighbor sensing mechanism in mobile ad hoc networks // V sbornike: 2010 International Congress on Ultra-Modern Telecommunications and Control Systems and Workshops, ICUMT 2010 Moscow, 2010. Pages 784-789.
12. Oliveira R.M., Ribeiro M.V., Vieira A.B. Eplc-cmac: an enhanced cooperative mac protocol for broadband plc systems // Computer Networks. 2019. Т. 153. Pages 11-22.
13. Jabba M D., Labrador M.A. A data link layer in support of swarming of autonomous underwater vehicles // В сборнике: OCEANS '09 IEEE Bremen: Balancing Technology with Future Needs Bremen, 2009. Pages 250.
14. Lim K., Lim Y.H., Lee Y.H. Virtual cell in mobile computer communications // Computer Communications. 2009. Т. 20. № 7 Pages 586-598.
15. Kharat P., Kulkarni M. Congestion controlling schemes for high-speed data networks: a survey // Journal of High Speed Networks. 2019. Т. 25. № 1 Pages. 41-60.
16. Tramarin F., Mok A.K., Han S. Real-time and reliable industrial control over wireless lans: algorithms, protocols, and future directions // Proceedings of the IEEE. 2019. Т. 107. № 6 Pages 1027-1052.