@InProceedings{NespoloNeRoRiNaCa:2016:MeBaTr,
               author = "Nespolo, Renan and Neves, Leandro Alves and Roberto, Guilherme and 
                         Ribeiro, Matheus and Nascimento, Marcelo Zanchetta do and Cansian, 
                         Adriano",
          affiliation = "{Sao Paulo State University (UNESP)} and {Sao Paulo State 
                         University (UNESP)} and {Sao Paulo State University (UNESP)} and 
                         {Sao Paulo State University (UNESP)} and FACOM, Federal University 
                         of Uberlandia and {Sao Paulo State University (UNESP)}",
                title = "Method Based on Triangulation for Sensor Deployment on 3D 
                         Surfaces",
            booktitle = "Proceedings...",
                 year = "2016",
               editor = "Aliaga, Daniel G. and Davis, Larry S. and Farias, Ricardo C. and 
                         Fernandes, Leandro A. F. and Gibson, Stuart J. and Giraldi, Gilson 
                         A. and Gois, Jo{\~a}o Paulo and Maciel, Anderson and Menotti, 
                         David and Miranda, Paulo A. V. and Musse, Soraia and Namikawa, 
                         Laercio and Pamplona, Mauricio and Papa, Jo{\~a}o Paulo and 
                         Santos, Jefersson dos and Schwartz, William Robson and Thomaz, 
                         Carlos E.",
         organization = "Conference on Graphics, Patterns and Images, 29. (SIBGRAPI)",
            publisher = "IEEE Computer Society´s Conference Publishing Services",
              address = "Los Alamitos",
             keywords = "Wireless Sensor Network, Sensor nodes, Deployment, Simulation.",
             abstract = "In this work a new method is proposed to obtain the deployment of 
                         sensor nodes with a maximum coverage area using a minimum number 
                         of sensor nodes in three-dimensional surfaces. The deployment is 
                         performed using the dual Delaunay triangulation/Voronoi Diagram. 
                         The position selection process considered the vertices as 
                         candidate positions and the sensing radius. The positions were 
                         selected based on the maximum area coverage and the existence of 
                         communication among them. The communication was defined as 
                         omnidirectional. To ensure the coverage area, the problem of 
                         sensing superposition was considered. The verification of the 
                         communication is accomplished by the minimum spanning tree 
                         algorithm. To certify the versatility of the proposed method, we 
                         show the deployment in distinct surface areas commonly monitored 
                         by Wireless Sensor Networks. The results were significant, with 
                         coverage area between 84% and 95% for distinct types of reliefs.",
  conference-location = "S{\~a}o Jos{\'e} dos Campos, SP, Brazil",
      conference-year = "4-7 Oct. 2016",
                  doi = "10.1109/SIBGRAPI.2016.027",
                  url = "http://dx.doi.org/10.1109/SIBGRAPI.2016.027",
             language = "en",
                  ibi = "8JMKD3MGPAW/3M3QSJ5",
                  url = "http://urlib.net/ibi/8JMKD3MGPAW/3M3QSJ5",
           targetfile = "Final_Papper90.pdf",
        urlaccessdate = "2024, Apr. 28"
}