In a research context in which multiple and well-behaved Surface Reconstruction algorithms already exist, the main goal is not to implement a visualization toolkit able render complex object, but the implementation of methods which can improve our knowledge on the observed world. This work presents a general Surface Reconstruction framework which encapsulates the uncertainty of the sampled data, making no assumption on the shape of the surface to be reconstructed. Starting from the input points (either points clouds or multiple range images), an Estimated Existence Function (EEF) is built which models the space in which the desired surface could exist and, by the extraction of EEF critical points, the surface is reconstructed. The final goal is the development of a generic framework that is able to adapt the result to different kinds of additional information coming that is from multiple sensors.
AN APPROACH TO SURFACE RECONSTRUCTION USING UNCERTAIN DATA / LAURA PAPALEO. - In: INTERNATIONAL JOURNAL OF IMAGE AND GRAPHICS. - ISSN 0219-4678. - STAMPA. - 07(2007), pp. 177-194.
Scheda prodotto non validato
Attenzione! I dati visualizzati non sono stati sottoposti a validazione da parte dell'ateneo
Titolo: | AN APPROACH TO SURFACE RECONSTRUCTION USING UNCERTAIN DATA |
Autori: | |
Data di pubblicazione: | 2007 |
Rivista: | |
Citazione: | AN APPROACH TO SURFACE RECONSTRUCTION USING UNCERTAIN DATA / LAURA PAPALEO. - In: INTERNATIONAL JOURNAL OF IMAGE AND GRAPHICS. - ISSN 0219-4678. - STAMPA. - 07(2007), pp. 177-194. |
Abstract: | In a research context in which multiple and well-behaved Surface Reconstruction algorithms already exist, the main goal is not to implement a visualization toolkit able render complex object, but the implementation of methods which can improve our knowledge on the observed world. This work presents a general Surface Reconstruction framework which encapsulates the uncertainty of the sampled data, making no assumption on the shape of the surface to be reconstructed. Starting from the input points (either points clouds or multiple range images), an Estimated Existence Function (EEF) is built which models the space in which the desired surface could exist and, by the extraction of EEF critical points, the surface is reconstructed. The final goal is the development of a generic framework that is able to adapt the result to different kinds of additional information coming that is from multiple sensors. |
Handle: | http://hdl.handle.net/11567/554519 |
Appare nelle tipologie: | 01.01 - Articolo su rivista |