Collaborative professional skills for engineers through descriptive geometry
DOI:
https://doi.org/10.51359/2595-0797.2019.241305Keywords:
Active Methodologies, Descriptive Geometry, EngineeringAbstract
The contemporary challenges of professionals in the fields of engineering have demanded new skills in dealing with form, both in the traditional means of representation and in the digital media, of which the pencil and paper and tools of Computer Aided Design coexist and are complementary. Object modeling has to be accurate, anticipating errors in order to avoid reworking. The correction of errors in the design phase is undoubtedly grounded in the knowledge of descriptive geometry. From the point of view of interpersonal skills, new demands frequently have been present such as cooperation, collaboration, interactivity, among others. This article discusses teaching experiences of descriptive geometry in the courses of civil engineering and mechanical engineering at Federal University of Pernambuco. The study makes use of active methodologies through innovative tools to broaden the debate about the applications of descriptive geometry in the design of models and the active teaching and learning methodologies for the acquisition of spatial visualization that stimulate collaboration in the learning process in a scenario of constant innovation. The students used traditional drawing tools (pencil and paper) and digital tools (AutoCAD and SketchUp) applied in solving problems. The innovation refers to the use of active methodologies for the apprehension of contents and the development of collaborative skills. These studies demonstrate that students have interacted and collaborated actively with different working groups.References
BARROWS, H. S. Problem-based learning in medicine and beyond: A brief overview. In: WILKERSON, L.; GIJSELAERS, W. H. (Eds.). Bringing problem-based learning to higher education: theory and practice. San Francisco: Jossey-Bass, 1996, p. 3-12.
BARROWS, H. S. Problem-based learning applied to medical education. Springfield, IL: Southern Illinois University Press, 2000.
BONO, E. Serious creativity: using the power of lateral thinking to create new ideas. London, Harper Collins. 1992.
CARVALHO, GISELE L. de et al. The Integration of Graphic Disciplines in Civil Engineering Courses through Computer Graphics. Journal of Mechanics Engineering and Automation. v. 7, p. 94-100, 2017.
CAVALCANTI, A. C. R.; De SOUZA, F. A. M.; CARVALHO, G. L. Processos colaborativos na aprendizagem da geometria descritiva para o curso de engenharia civil. In: XLIII CONGRESSO BRASILEIRO DE EDUCAÇÃO EM ENGENHARIA, 2015, Mauá. Anais... Mauá-RJ, 2015.
CAVALCANTI, A. C. R. et al. Habilidade espacial e colaborativa dos estudantes de engenharia civil: adaptando PBL para o ensino-aprendizagem de geometria descritiva. In: CONGRESSO BRASILEIRO DE EDUCAÇÃO EM ENGENHARIA, 44., 2016, Natal. Anais... Natal-RN, 2016.
CAVALCANTI, A. C. R.; MELO, V. R. P.; De SOUZA, F. A. M. Contribuição da geometria descritiva para uma educação inovadora nas engenharias mecânica e civil. In: XLVI CONGRESSO BRASILEIRO DE EDUCAÇÃO EM ENGENHARIA, 46., 2018, Salvador. Anais... Salvador, 2018.
CAVALCANTI, Danuza; SILVA, Aparecida. Modelos didáticos de professores: concepções de ensino-aprendizagem e experimentação. In: XIV ENCONTRO NACIONAL DE ENSINO DE QUÍMICA, 2008, Curitiba. Anais… Curitiba, 2008.
CHANDRASEKARAN, S. et al. Learning through projects in engineering education. In: SOCIETÉ EUROPÉENNE POUR LA FORMATION DES INGÉNIEURS ANNUAL CONFERENCE, 40., 2012, Thessaloniki. Anais… Thessaloniki: SEFI, 2012.
EUROPEAN COMMISSION. European classification of skills/competences, qualifications and occupations. Publication Office of the European Union, Luxembourg, 2013.
GAVIN, K. Case study of a project-based learning course in civil. European Journal of Engineering Education, No. 36, Vol. 6, p. 547–558. 2011.
GIANNOTTI, M. et al. Proposta de aplicação do PBL nos cursos de engenharia. In: CONGRESSO BRASILEIRO DE EDUCAÇÃO EM ENGENHARIA, 36., 2008, São Paulo. Anais... São Paulo: ABENGE, 2008.
HMELO-SILVER, Cindy E. Problem-Based Learning: what and how do students learn? Educational Psychology Review, v.16, n.3, 2004, p. 235–266.
LEVIN, B. Energizing teacher education and professional development with problem-based learning. United States: ASCD, 2001.
LIBÂNEO, J. C. Didática. São Paulo: Cortez, 1990.
MAMEDE, S. Aprendizagem baseada em problemas: características, processos e racionalidade. In: MAMEDE, S.; PENAFORTE, J. (Orgs.). Aprendizagem baseada em problemas: anatomia de uma nova abordagem educacional. Fortaleza: Hucitec, 2001. p. 25-48.
MATÍNEZ, A. M. A criatividade como princípio funcional da aula: limites e possibilidades. In: VEIGA, I. P.A. (Org.) Aula: gênese, dimensões, princípios e práticas. Campinas: Papicus, 2008. p. 115-143.
MONTENEGRO, G. Habilidades espaciais: exercícios para o despertar de ideias. Santa Maria: sCHDs, 2003.
NORMAN, K. L. Spatial visualization: a gateway to computer-based technology. Journal of Special Educational Technology, v. XII, n. 3, 1994, p. 195-206.
PIMENTA, S. G.; ANASTASIOU, L. D. G. C. Docência no ensino superior. São Paulo: Cortez, 2002.
PRENDES ESPINOSA, Maria Paz. Análisis de imágenes en textos escolares. Pixel-Bit. Revista de Medios y Educación, 1996, n. 6, p. 15-39.
SEABRA, Rodrigo; SANTOS, Eduardo. Avaliando a aptidão espacial de estudantes em um curso de geometria gráfica. In: VII INTERNATIONAL CONFERENCE ON GRAPHICS ENGINEERING FOR ARTS AND DESIGN, 2007, Curitiba. Anais… Curitiba, 2007.
STACHEL, Hellmuth., Descriptive Geometry in today's engineering curriculum. Transactions of FAMENA Vol. 29 N. 2 , 2005, pp. 35-44.
UTTAL, D. et al. The malleability of spatial skills: a meta-analysis of training studies. Psychological Bulletin, 2013, v. 139, n. 2, p. 352–402.