Damásio, CarlosMedeiros, PedroNascimento, SusanaSantos, Luís Duque2019-02-252019-02-252018-062018http://hdl.handle.net/10362/61547Forest fires cause devastating amounts of damage generating negative consequences in the economy, the environment, the populations’ quality of life and in worst case the loss of lives. Having this in mind, the quick and timely prediction of forest fires is a major factor in the mitigation or even negation of the aforementioned consequences. Remote sensing is the process of obtaining information about an object or phenomena without direct interaction. This is the premise on which satellites acquire data of planet Earth. These observations produce enormous amounts of data on a daily basis. This data can be used to find correlation between land surface variables and conditions that are prone to fire ignition. Recently, in this field of study, there has been an effort to automate the process of correlation using machine learning techniques, such as Support Vector Machines and Artificial Neural Networks, in conjunction with a data mining approach, where historical data of a specific area is analysed in order to sort out the major primers of forest fire ignitions and identifying trends. The drawback of this approach is the large amount of time even the simplest task takes to process. GPU processing is the most recent strategy to accelerate this process. The thesis aims to study the behaviour of GPU parallelized classifiers with the ever increasing amounts of data to process and understand if these are appropriate for use in forest predictive tasks.engRemote SensingGPU ProcessingSatellite SystemsMachine LearningSupport Vector MachinesArtificial Neural NetworksGPU Accelerated Classifier Benchmarking for Wildfire Related Tasksmaster thesis