The “unknown” Greek Paleoenvironment: Curriculum Proposals through an Infusion Model for Elementary School, Using Ammonite Fossils

Stiliani FRAGOULI, Aggeliki ROKKA


In this study we introduce an infusion model to “inject” ammonites and ammonite fossils in current subjects of Greek primary curriculum. Paleontology and mainly fossils attract more and more elementary students and teachers, yet in Greece this trend is solely about dinosaurs, despite the fact that the most common Greek fossils are not dinosaurs, but ammonites. Ammonites can be found in large population and diversity inside Greek rocks, as these rocks were part of Tethys΄ seafloor at their geological time. Apart from the informal sources of education, these science topics are excluded from elementary national curriculum, and leave the regional paleoenvironment and geological history practically “unknown” to students. Data collected through a pre-test study, in 558 students of 4th, 5th, and 6th grade confirmed the above belief. A post-test at the original sample, using an open ended questionnaire and students’ drawings, evaluated positively the infusion teaching model, whose core were the ammonite fossils. 


Ammonite fossils, Marine paleoenvironment, Elementary geoscience education, Infusion model, Curriculum proposals.

Paper Details

Paper Details
Topic Curriculum and Instruction
Pages 753 - 774
Issue IEJEE, Volume 9, Issue 4
Date of acceptance 30 May 2017
Read (times) 46
Downloaded (times) 35

Author(s) Details


Democritus University of Thrace, Greece,

Aggeliki ROKKA

Democritus University of Thrace, Greece


Burr, A. S., Chiment J. J., Allmon, D. W., & Rigby, J. K. (2003). A problematic fossil brings Paleontology to the clasroom and the world. Journal of Geoscience Education, 51(4), 361-364.

Castro, P., & Huber, E. M. (1999). Marine Biology, Thessaloniki, Greece: University Studio Press.

Cheek, A. K. (2010). Commentary: A summary and analysis of twenty-seven years of geoscience conceptions research. Journal of Geoscience Education, 58(3), 122-134.

Dodick, J. T., & Orion, N. (2003). Introducing evolution to non-biology majors via the fossil record: A case study from the Israeli high school system. The American Biology Teacher, 65(3), 185-190.

Driver R., Squires A., Rushworth P., & Wood-Robinson V. (2000). Making sense of secondary science: Research into children’s ideas. Athens, Greece: Dardanos publications.

Harlen, W., & Holroyd, C. (1997). Primary teachers’ understanding of concepts of science: impact on confidence and teaching. International Journal of Science Education, 19(1), 93-105.

Klonari, A., & Koutsopoulos, K. (2005). Primary and secondary educators’ attitudes on school geography. In K. Donert & P. Charzynski, Changing horizons in geography education. Torun, Poland: Herodot Network, 151-155.

Kusnick, J., (2002). Growing pebbles and conceptual prisms: Understanding the source of student misconceptions about rock formation. Journal of Geoscience Education, 50, 31-39.

Lewis, B. E., Baker, R. D., (2010). A call for a new geoscience education research agenda. Journal of research in Science Teaching, 47(2), 121-129.

Libarkin, J. (2006). Geoscience education in the United States. Planet, 17(1), 60-63

Libarkin, J., Schneps, H. M., (2012). Elementary Children’s Retrodictive Reasoning about Earth Science. International Electronic Journal of Elementary Education, 5(1), 47-62.

McMenamin, A. S-M., (2007). Ammonite fossil portrayed on an ancient Greek countermarked coin. Antiquity, 81, 944-948.

Ministry of Education and Religious Affairs, (2003). National curriculum for primary school, 2003, Law FEK, 304, 2. (in Greek)

Ministry of the Aegean. (2002). Atlas of geological monuments of the Aegean. Athens, Greece: Ministry of the Aegean publications. (in Greek)

Monks, N., (2002). Cladistic analysis of a problematic ammonite group: the Hamitidae (Cretaceous, Albian-Turonian): Proposals for new cladistic terms. Paleontology, 45(2), 689-707.

Orion, N., Ben-Chaim, D., Kali Y. (1997). Relationship between Earth-Science education and spatial visualization. Journal of Geoscience Education, 45, 129-132.

Pope, K. O., Hondt, L., D-S., Marshall, R. C., (1998). Meteorite impact and the mass extinction of species at the Cretaceous/Tertiary boundary. Proc. Nat. Acad. Sci. USA, 95, 11028-11029.

Raup, M. D., (1994). The role of extinction in evolution. Proc. Natl. Acad. Sci. USA, 91, 6758-6763.

Rule, C. A., (2005). Elementary Students’ Ideas concerning fossil fuel energy. Journal of Geoscience Education, 53(3), 309-318.

Sabyasachi, S., Soma, D., Pinaki, R., Shiladri, S. D., (2004). Ammonites as biological stopwatch and biogeographical black box: A case study from the Jurassic - Cretaceous boundary (150 Ma) of Kutch, Gujarat. Current Science, 86(1), 197-202.

Trend, R., (2005). Individual, situational and topic interest in geoscience among 11- and 12-year-old children. Research Papers in Education, 20(3), 271-302.

Truscott, B., Boyle, A., Burkill, S., Librakin, J., Londsale, J., (2006). The concept of time: can it be fully realized and taught? Planet, 17(1), 21-23.

UNESCO-UNEP (1994). Procedures for developing an environmental education curriculum (Revised). Environmental education series 22, UNESCO Environmental education unit, Science and environmental education section, Division for the renovation of educational curricula and structures.

Van de Walle, A. J. (2005). Elementary and middle school Mathematics: Teaching developmentally. Athens, Greece: Dardanos publications.

Waters, B. T., & Savage, E. D., (1971). Making duplicates of small vertebrate fossils for teaching and for research collections. Curator: The Museum Journal, 14(2), 123-132.

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