ABSTRACT
The present paper illustrates the application of a new approach to creating and using virtual models of forest ecosystems using the system for e-learning as a mean of developing a virtual working environment. These matters are especially important for studying the impact of anthropogenic factors on resources condition and biodiversity dynamics within ecosystems, when different groups of researches combine efforts, exchange data and knowledge and coordinate their actions in order to use the information resources most properly.
- Brown, T., T. Daniel. Predicting scenic beauty of timber stands. For. Sci. 32(2): 1986, 471--487Google Scholar
- E-learning project Fish in the Web. Biology and pathology of fish. 2005. E-learning academy Zagreb. http://www.vef.hr/tusavrs/ELAFishInTheNET.pdfGoogle Scholar
- E-learning and simulation labs. HEEPF deliverables. http://www.heepf.org.eg/pdf/Booklets/E-learning%20&%20Simulation%20Labs.pdfGoogle Scholar
- Emergency case simulator. Royal veterinary college, University of London. http://www.rvc.ac.uk/review/cases/index.htmGoogle Scholar
- Heasley, J., J. McNamara. Simulating the visual effects of timber harvest practices. In Proc. Resource Technology 90 - Second Symposium on Advanced Technology in Natural Resource Management. Washington, D. C., American Society for Photogrammetry and Remote Sensing, Bethesda, Maryland, 1990, pp. 39--47.Google Scholar
- http://3dnature.com/Google Scholar
- Kellomäki, S., T. Pukkala. Forest landscape: A method of amenity evaluation based on computer simulation. Landscape Urban Plann., 1989, 18:117--125.Google ScholarCross Ref
- Kosiur, D., Understanding electronic commerce, Microsoft corporation, 1998. Google ScholarDigital Library
- Magee, M. Simulation in education. Final report. Alberta online learning consortium, Calgary AB, 2006. http://www.ccl-cca.ca/NR/rdonlyres/C8CB4C08-F7D3-4915-BDAA- C41250A43516/0/SFRSimulationinEducationJul06REV.pdfGoogle Scholar
- Miltchev, R., B. Zhelyazova. Investigation of opportunity to use streaming media for educational and business purposes. Management & Sustainable Development, No. 1, 2008, pp. 400--406 (in Bulgarian).Google Scholar
- Miltchev, R., E-business and commerce. University of Forestry Publishing House, Sofia, 2007, p.303. (in Bulgarian)Google Scholar
- Miltchev, R., Distance e-learning. Common state, organization, user manual.. University of Forestry Publishing House, Sofia, 2006, p.149. (in Bulgarian)Google Scholar
- Miltchev R., B. Zhelyazova, A. Rozeva. Distance e-learning. Development of Learning Content and Activities in Moodle.University of Forestry Publishing House, Sofia, 2007, p.96. (in Bulgarian)Google Scholar
- Orland, B., J. LaFontaine, T. Daniel. Alternative Futures for Forested Landscapes. In Proc. Resource Technology 90, Washington D. C. American Society for Photogrammetry and Remote Sensing, Bethesda, Maryland, 1990, pp. 48--57.Google Scholar
- Orland, B., T. Daniel, A. Lynch, E. Holsten. Data-driven Visual Simulation of alternative Future for Forested Landscapes. In proc. IUFRO---Integrating Forest Information over Space and Time. Canberra, 1992, pp. 368--378.Google Scholar
- Orland, B., Smartforest: 3-D interactive forest visualization and analysis. In Proc. Decision Support-2001, Resource Technology 94, Toronto. American Society for Photogrammetry and Remote Sensing, Bethesda, Maryland, 1994b, ISBN 1-57083-022-3.Google Scholar
- Watts, N., Rapid development of media-rich, interactive e-learning. Current developments in technology-assisted education, 2006.Google Scholar
- Zhelyazova, B., R. Miltchev. University virtual laboratory for education and innovations in scientific researches. Proceedings of International Conference - E-Learning and the Knowledge Society, 31.08. - 02.09.2009, Berlin, Germany, pp.289--294.Google Scholar
- Zhelyazova, B. European Computer Science Summit "The Forum on the Future of Computer Science Education and Research", Paris, 7--9 October - 5th Annual INFORMATICS-Europe Meeting, Department Chair Workshop (presentation Computer Systems & Informatics Dept., UF), 2009.Google Scholar
Index Terms
- Problems and solutions for creating and using virtual models of forest ecosystems
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