Supporting Key Aspects of Practice in Making Mathematics Explicit in Science Lessons

STEM integration has often been recommended as a way to support students to develop 21st Century skills needed to function in the complex modern world. In order for students to experience integration, however, their teachers need support in designing, developing and implementing integrated curricular instruction, which is often at odds with a very subject-focused educational system. This paper reports on the second year of a research study conducted with five secondary science and mathematics teachers, concerned with supporting them to teach explicitly the mathematics components within science lessons, mediated via technology. It outlines how the teachers collaborated with the support of science and mathematics education researchers within a community of practice, named a Teaching and Learning Network (TLN). The network was intended to promote and enhance teacher capacity for the interdisciplinary teaching of mathematics in science in the face of various contextual and other obstacles observed in the first year of the study. This study found that the opportunity to work in a Teaching and Learning Network supported the teachers’ ownership of the design of the integrated learning unit, enhanced their content knowledge of the mathematics, their use of the data logging technology and their understanding of an inquiry based pedagogical approach. Participation in the TLN provided teachers with the mechanism to cross the boundaries of the subject disciplines, and thereby promoted change in their attitudes, professional knowledge and to some extent, practice

S3.16 Administrative Symposium: Putting nature of science research into classroom practice: real teachers...real teaching

Strand 13: History, Philosophy, and Sociology of ScienceThe philosophical and empirical work on nature of science is rich. But how is this work translated into practice by classroom teachers? What are teachers actually doing in their classrooms to teach about the epistemological basis of science? How do they take research recommendations and implement them in their daily practice? What challenges do they encounter? What supports and resources are most helpful? This symposium gathers researchers, teacher educators, and teachers to discuss the reality and practicality of presenting the epistemological basis of science within the confines of a science classroom. Practicing K-12 teachers will present examples of their teaching and describe their experiences of putting research into practice.The 2010 Annual International Conference of National Association for Research in Science Teaching (NARST), Philadelphia, PA., 21-24 March 2010

The potentials of student initiated Netspeak in a middle primary science-inspired multiliteracies project

There is no denying that the information technology revolution of the late twentieth century has arrived. Whilst not equitably accessible for many, others hold high expectations for the contributions online activity will make to student learning outcomes. Concurrently, and not necessarily consequentially, the number of science and technology secondary school and university graduates throughout the world has declined substantially, as has their motivation and engagement with school science (OECD, 2006). The aim of this research paper is to explore one aspect of online activity, that of forum-based netspeak (Crystal, 2006), in relation to the possibilities and challenges it provides for forms of scientific learning. This paper reports findings from a study investigating student initiated netspeak in a science inspired multiliteracies (New London Group, 2000) project in one middle primary (aged 7-10 years) multi-age Australian classroom. Drawing on the theoretical description of the Five phases of enquiry proposed by Bybee (1997), an analytic framework is proffered that allows identification of student engagement, exploration, explanation, elaboration and evaluation of scientific enquiry. The findings provide insight into online forums for advancing learning in and motivation for science in the middle primary years