Page 57 - ITU Journal Future and evolving technologies Volume 3 (2022), Issue 2 – Towards vehicular networks in the 6G era
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ITU Journal on Future and Evolving Technologies, Volume 3 (2022), Issue 2




          [4]  R. Molina-Masegosa and J. Gozalvez, "System     [13] Y.  M.  Park,  Y.  K.  Tun  and  C.  S.  Hong,
               Level  Evaluation  of  LTE-V2V  Mode  4               "Optimized Deployment of Multi-UAV based
               Communications     and    Its   Distributed           on    Machine    Learning    in   UAV-HST
               Scheduling,"  2017  IEEE  85th  Vehicular             Networking," 2020 21st Asia-Pacific Network
               Technology  Conference  (VTC  Spring),  2017,         Operations  and  Management  Symposium
               pp.    1-5,    doi:    10.1109/VTCSpring.             (APNOMS),     2020,   pp.   102-107,   doi:
               2017.8108463.                                         10.23919/APNOMS50412.2020.9236987.

          [5]  M.  Gonzalez-Martín,  M.  Sepulcre,  R.  Molina-  [14] R. Parada, A. Aguilar, J. Alonso-Zarate and F.
               Masegosa and J. Gozalvez, "Analytical Models          Vázquez-Gallego,  "Machine  Learning-based
               of  the  Performance  of  C-V2X  Mode  4              Trajectory  Prediction  for  VRU  Collision
               Vehicular   Communications,"     in   IEEE            Avoidance in V2X Environments," 2021 IEEE
               Transactions  on  Vehicular  Technology,  vol.        Global     Communications       Conference
               68,  no.  2,  pp.  1155-1166,  Feb.  2019,  doi:      (GLOBECOM),      2021,   pp.    1-6,   doi:
               10.1109/TVT.2018.2888704.                             10.1109/GLOBECOM46510.2021.9685520.
          [6]  A.  Chourasia,  B.  R.  Tamma  and  A.  Antony  [15] Hadiwardoyo,  S.A.;  Calafate,  C.T.;  Cano,  J.;
               Franklin, "Traffic-Aware Sensing-Based Semi-          Krinkin,  K.;  Klionskiy,  D.;  Hernández-Orallo,
               Persistent Scheduling for High Efficacy of C-         E.;  Manzoni,  P.  Three  Dimensional  UAV
               V2X  Networks,"  2021  IEEE  94th  Vehicular          Positioning   for   Dynamic     UAV-to-Car
               Technology    Conference    (VTC2021-Fall),           Communications.  Sensors  2020,  20,  356.
               2021,  pp.  01-05,  doi:  10.1109/VTC2021-            [CrossRef] [PubMed]
               Fall52928.2021.9625212.                         [16] Yun  Hou,  Kin  K.  Leung  and  Tom  La  Porta,
          [7]  V.  Sharma,  R.  Sabatini  and  S.  Ramasamy,         “Optimal  Resource  Allocation  for  Battery
               "UAVs  Assisted  Delay  Optimization  in              Limited Wireless Sensor Networks,” Proc. of
               Heterogeneous Wireless Networks," in IEEE             Annual  Conference  of  ITA  2010,  September
               Communications  Letters,  vol.  20,  no.  12,         15-16, Imperial College, London, UK.
               pp. 2526-2529, Dec. 2016.                       [17] H.  Mahboubi,  W.  Masoudimansour,  A.  G.
          [8]  G. Zhang, H. Yan, Y. Zeng, M. Cui and Y. Liu,         Aghdam  and  K.  Sayrafian-Pour,  "Maximum
               "Trajectory   Optimization    and    Power            Lifetime Strategy for Target Monitoring with
               Allocation  for  Multi-Hop  UAV  Relaying             Controlled Node Mobility in Sensor Networks
               Communications,"  in  IEEE  Access,  vol.  6,         With  Obstacles,"  in  IEEE  Transactions  on
               pp. 48566-48576,2018.                                 Automatic     Control,    vol. 61,   no. 11,
          [9]  H. Wang, J. Chen, G. Ding and S. Wang, "D2D           pp. 3493-3508, Nov. 2016.
               Communications  Underlaying  UAV-Assisted       [18] W.  Anwar,  N.  Franchi  and  G.  Fettweis,
               Access  Networks,"  in  IEEE  Access,  vol.  6,       "Physical   Layer   Evaluation    of   V2X
               pp. 46244-46255, 2018.                                Communications  Technologies:  5G  NR-V2X,
          [10] M.  Grossglauser  and  D.  Tse,  “Mobility            LTE-V2X, IEEE 802.11bd, and IEEE 802.11p,"
               increases  the  capacity  of  ad-hoc  wireless        2019  IEEE  90th  Vehicular  Technology
               networks,”  IEEE/ACM  Transactions  on                Conference (VTC2019-Fall), 2019, pp. 1-7, doi:
               Networking, v 10, n 4, p 477-86, Aug. 2002.           10.1109/VTCFall.2019.8891313.
          [11] S. Diggavi, M. Grossglauser and D. Tse, “Even   [19] D. Wang, R. R. Sattiraju, A. Qiu, S. Partani and
               One-Dimensional  Mobility  Increases  Adhoc           H. D. Schotten, "Methodologies of Link-Level
               Wireless  Capacity,”  IEEE  Transactions  on          Simulator and System-Level Simulator for C-
               Information Theory, vol 51(11), Nov. 2005             V2X  Communication,"  2019  IEEE  2nd
          [12] H.  Liu,  X.  Chu,  Y.  Leung  and  R.  Du,  "Simple  International Conference on Electronics and
                                                                     Communication  Engineering  (ICECE),  2019,
               movement     control   algorithm   for   bi-          pp. 178-184,   doi:   10.1109/ICECE48499.
               connectivity in robotic sensor networks," in          2019.9058545.
               IEEE   Journal   on   Selected   Areas   in
               Communications, vol. 28, no. 7, pp. 994-1005,   [20] A.  Bazzi,  G.  Cecchini,  A.  Zanella  and  B.  M.
               September      2010,     doi:     10.1109/            Masini, "Study of the Impact of PHY and MAC
               JSAC.2010.100904.                                     Parameters in 3GPP C-V2V Mode 4," in IEEE
                                                                     Access,  vol.  6,  pp.  71685-71698,  2018,  doi:
                                                                     10.1109/ACCESS.2018.2883401.




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