Do video games improve spatial abilities of engineering students?

International Journal of Engineering Education

Volumn 25, Issue 6, 2009, Pages 1194-1204

  Martin Gutiérrez, Jorge ^a   Saorín, José Luis ^a   Martín Dorta, Norena ^a   Contero, Manuel ^b  

^a UNIVERSIDAD DE LA LAGUNA   (Spain)

^b UNIVERSITAT POLITÈCNICA DE VALÈNCIA   (Spain)

Author keywords

DAT; Electronic pencil, tetris; MRT; Spatial abilities; SR; Video games

Indexed keywords

EID: 74549204527     PISSN: 0949149X     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (49)

1. Q-P. Claudia, G. Christian and L. Wolfgang, The relationship between computer-game preference, gender, and mental-rotation ability, Personality and Individual Differences, 40, (2006) pp. 609-619.
2. M. Contero, F. Naya, P. Company, J. L. Saorín and J. Conesa, Improving visualization skills in engineering education, Computer Graphics and Applications, 25 (5), (2005), pp. 24-31.
3. S. W. Crown, Improving visualization skills of engineering graphics students using simple JavaScript web based games, Journal of Engineering Education, 90 (3), (2001), pp. 347-355.
4. M. Contero, F. Naya, P. Company and J. L. Saorin, Learning support tools for developing spatial abilities in engineering design, International Journal of Engineering Education, 22 (3), (2006), pp. 470-477.
5. J. L. Saorín, Estudio del efecto de la aplicación de tecnologías multimedia y del modelado basado en bocetos en el desarrollo de habilidades espaciales, Doctoral Thesis, School of Industrial Engineering, Polytechnic University of Valencia, (2006).
6. J. L. Saorín, R. Navarro, N. Martín and M. Contero, Visualization skills and the engineering graphics curricula, Proceedings of the International Conference on Engineering and Computer Education. ICECE05, Madrid, Spain, (2005).
7. L. Okagaki and P. A. Frensch, Effects of video game playing on measures of spatial performance: gender effects in late adolescence, Journal of Applied Developmental Psychology, 15, (1994), pp. 33-58.
8. J. Feng, I. Spence and J. Pratt, Playing an action video game reduces gender differences in spatial cognition, Psychological Science, 18 (10), (2007), pp. 850-855.
9. R. B. Cattell, H. W. Eber and M. M. Tatsuoka, Handbook for the Sixteen Personality Factor Questionnaire (16 PF), Institute for Personality and Ability Testing, Champaign, IL, (1970) p. 394.
10. J. P. Guilford and R. Hoepfner, The Analysis of Intelligence, McGraw-Hill, New York, (1971) p. 512.
11. D. F. Lohman, Spatial Ability, Human Abilities: Their Nature and Assessment, I. Dennis and P. Tapsfield (Eds.), Erlbaum, Hillsdale, NJ, (1996) p. 97-116.
12. L. L. Thurstone, Primary Mental Abilities, University of Chicago Press, Chicago, (1938) p. 116.
13. L. L. Thurstone, Some primary abilities in visual thinking, Proceedings of the American Philosophical Society, 94 (6), (1950), pp. 517-521.
14. P. E. Vernon, The Structure of Human Abilities, Wiley, New York, (1950), pp. p. 160.
15. M G. McGee, Human spatial abilities: psychometric studies and environmental, genetic, hormonal, and neurological influences, Psychological Bulletin, 86 (5), (1979), pp. 889-918.
16. M. Linn and A. Petersen, Emergence and characterization of sex differences in spatial ability: A meta-analysis, Child Development, 56, (1985), pp. 1479-1498.
17. D. F. Halpern and M. L. LaMay, The smarter sex: A critical review of sex differences in intelligence, Educational Psychology Review, 12, (2000), pp. 229-246.
18. J. Pellegrino, D. Alderton and V. Shute, Understanding Spatial Ability, Educational Psychologist, 19 (3), (1984), pp. 239-25.
19. S. Olkun, Making connections: Improving Spatial abilities with engineering drawing activities, International Journal for Mathematics Teaching and Learning, Electronic journal, April, 1-10, (2003).
20. S. G. Vandenberg and A. R. Kuse, Mental rotations: a group test of three-dimensional spatial visualisation, Perceptual and Motor Skills, 47 (6), (1978), pp. 599-604.
21. G. Bennett, H. Seashore and A. Wesman, Differential Aptitude Tests, The Psychological Corporation, New York, (1947) (Spanish official version: Handbook of the DATS, TEA Ediciones, S. A., Madrid, (2007)).
22. S. A. Sorby, Spatial abilities and their relationship to computer aided design instruction, in Web Proceeding of the Annual Conference & Exposition: Engineering: Education to Serve the World, Charlotte, NC, (1999). Available at: http://soa.asee.org/paper/conference/paper-view.cfm?id= 14680 (last accessed April, 2009).
23. H. Stumpf and J. Eliot, A structural analysis of visual spatial ability in academically talented students, Learning and Individual Differences, 11, 137-151 (1999).
24. K. Sutton and A. Williams, Developing a discipline-based measure of visualisation, Proceedings of the 2008 Assessment in Science Teaching and Learning Symposium, Sydney, (2008). (Available in: http://science.uniserve.edu. aU/pubs/procs/2008/l 15.pdf)
25. D. Voyer, S. Voyer and M. Bryden, Magnitude of sex differences in spatial abilities: A metaanalysis and consideration of critical variables, Psychological Bulletin, 117, (1995), pp. 250-270.
26. D. Voyer, C. Nolan and S. Voyer, The relation between experience and spatial performance in men and women, Sex Roles, 43, (2000), pp. 891-915.
27. M. Baenniger and N. Newcombe, The role of experience in spatial test performance: A meta analysis, Sex roles: A Journal of Research, 20 (5-6), (1989), pp. 327-334.
28. C. Quaiser-Pohl and W. Lehmann, Girls' spatial abilities: Charting the contributions of experiences and attitudes in different academic groups, British Journal of Educational Psychology, 72, (2002), pp. 245-260.
29. L. J. Massa, R. E. Mayer, and L. M. Bohon, Individual differences in gender role beliefs influence spatial ability test performance, Learning & Individual Differences, 15 (2), (2005), pp. 99-111.
30. M. S. Terleki and N. S. Newcombe, How important is the digital divide? The relation of computer and video game usage to gender differences in mental rotation ability, Sex Roles, 53, (2005), pp. 433-4541.
31. P. S. Dejong, Improving visualization: Fact or fiction?, Engineering Design Graphics Journal, 41 (1), (1977), pp. 47-53.
32. T. R. Lord, Enhancing the Visio-Spatial Aptitude of Students, Journal of Research in Science Teaching, 22 (5), (1985), pp. 395-405.
33. S. A. Sorby, Developing 3-D spatial visualization skills, The Engineering Design Graphics Journal, 63 (2), (1999), pp. 21-32.
34. S. A. Sorby and B. J. Baartmans, The development and assessment of a course for enhancing the 3-D spatial visualization skills of first year engineering students, Journal Engineering Education, 89 (3), (2000), pp. 301-307.
35. M. Alias, T. R. Black and D. E. Gray, Effect of instruction on spatial visualization ability in civil engineering students, International Education Journal, 3 (1), (2002), pp. 1-12.
36. S. E. Wiley, Computer graphics and the development of visual perception in engineering graphics curricula, Engineering Design Graphics Journal, 54 (3), (1990), pp. 30-35.
37. R. Devon, R. S. Engle, R. J. Foster, D. Sathianathan and G. F. Turner, The effect of solid modelling software on 3D visualization skills, Engineering Design Graphics Journal, 58 (2), (1994), pp. 4-11.
38. N. Martin-Dorta, J. L Saorín and M. Contero, Development of a fast remedial course to improve the spatial abilities of engineering students, Journal of Engineering Education, 97 (4), (2008), pp. 505-513.
39. A. Dünser, K. Steinbügl, H. Kaufmann and J. Glück, Virtual and augmented reality as spatial ability training tools, Web Proceeding of the 7th ACM SICCHI New Zealand Chapter's International Conference on Computer-Human Interaction: Design Centered HCI, Christchurch, New Zealand, (2006). Available at: http://www.ims.tuwien. ac.at/media/documents/publications/ duenser-chinz-2006.pdf (last accessed April, 2009).
40. A. Rafi, K. A. Samsudin, and C. S. Said, Training in spatial visualization: The effects of training method and gender, Educational Technology & Society, 11 (3), (2008), pp. 127-140.
41. G. P. Adánez, A. D. Velasco, Predicting academic success of engineering students in technical drawing from visualization test scores, Journal of Geometry and Graphics, 6 (1), (2002), pp. 99-109.
42. J. L. Mohler, Using interactive multimedia technologies to improve student understanding of spatially-dependent engineering concepts, Proceedings of the International Graphicon 2001 Conference on Computer Geometry and Graphics, Nyzhny Novgorod, Russia, (2001), pp. 292-300.
43. J. H. Goldstein, Sex differences in toy play and use of video games, Toys, Play, and Child Development, J. H. Goldstein (Ed.), Cambridge University Press, Cambridge, (1994) p. 110-129.
44. E. Rodríguez, I. Mejías, A. Calvo, E. Sánchez and J. Navarro, Jóvenes y videojuegos, FAD/INJUVE, Madrid (2002) p. 350.
45. N. Boersma, A. Hamlin and S. A. Sorby, Work in progress-Impact of a remedial 3-D visualization course on student performance and retention, Proceedings of the 2004 ASEE/IEEE Frontier in Education Conference, FIG-22, Savannah (2004).
46. http://www.videojuegos.com (skills and intelligence sections), accessed on April 19, 2009.
47. http://www.publijuegos.com/flash/(skill, logic sections), accessed on April 19, 2009.
48. http://www.addictinggames.com/(section Puzzle & Board), accessed on April 19, 2009.
49. Nintendo, official website, http://www.nintendo.com/channel/ds/, accessed April 19, 2009.