Tendo em vista os resultados aqui apresentados, pretende-se, primeiramente, publicar em revistas científicas os resultados apresentados nos Capítulos 4 e 6, os quais, respec- tivamente, dizem respeitos ao método da dupla projeção e do código de orientação a objetos para simulações multifísicas. No caso do método da dupla projeção, pretende- se expandir suas aplicações ao caso bidimensional e comparar os resultados com as outras técnicas do método de Petrov-Galerkin via simetrização. Pretende-se também aplicar os conhecimentos obtidos com a resolução do problema de injeção de traçador em meios porosos para casos mais complexos, tais como problemas com geologia fractal e problemas em escoamento multifásico em meios porosos rígidos e deformáveis.
Outros tópicos como perspectivas de trabalhos futuros são:
• Estudar, no sentido da simulação multifísica, o novo método de elementos finitos conhecido como método multiescala híbrido misto (MHM) [90].
• Como em simulações multifísicas várias equações diferenciais parciais são acopla- das, pretende-se estudar quais técnicas de resolução de sistema são mais apropri- adas de acordo com a natureza do problema.
• Estudo de técnicas que possam melhorar a performance da resolução de problemas via simulação multifísica, tais como, hp-adaptatividade e programação de alto desempenho.
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