One of the main goals of the ESTABLISH 7fp project (available on line at http://www.establish-fp7.eu/) was the development and implementation of the professional development teacher education programmes (TEP) to support teachers in adopting inquiry-based strategies in their teaching. Within the project there was a model for in-service and pre-service teacher training in IBSE designed and implemented across 12 participating countries. The programme is based on 4 core elements and 4 additional elements that are built around the IBSE teaching units developed within the project. As accepted by ESTABLISH partners, all teacher training programmes include the minimum of the four elements, i.e. introduction to IBSE, industrial content knowledge, teacher as implementer and teacher as developer of IBSE teaching materials. There are also four additional elements designed in detail, i.e. ICT for IBSE, argumentation in the classroom, research and design projects for students, assessment of IBSE. These can be added to the programme optionally with regard to the level of teachers' IBSE skills and current situation in education and teachers' professional development within the country. This ESTABLISH model of TEP was followed in participating countries in order to change teachers' attitudes from traditional ways of teaching towards adopting inquiry strategies and their successful implementation in the classroom. Within the face-to-face workshops teachers experienced and developed their inquiry based teaching strategies using specifically developed materials. In addition, the e-platform has been developed to provide on-line support. This platform provides educators and teachers with all the necessary materials for the training and IBSE teaching units and other teaching materials for teachers' ongoing help. The teacher training programme was successfully implemented in Slovakia. There were two runs of teacher training workshops on IBSE already carried out. Moreover, the additional element ICT in IBSE was developed more deeply designing a separate teacher training course for it. The contribution discusses in more details the success and problems of implementation in the context of Slovak educational environment.

I den här boken ges konkreta förslag på hur man kan arbeta med naturvetenskap i årskurserna F-6. Läraren ska kunna erbjuda lärandesituationer där eleverna kan skapa sig grundläggande förståelse för energi, materia, ekologi, människokroppen, krafter och vårt solsystem.

Education for Sustainable Development has been discussed as problematic, as a top down directive promoting an ―indoctrinating‖ education. The concept of the intertwined dimensions (economic, social-cultural, and environmental) of sustainable development is seen both as an opportunity and as a limitation for pluralistic views of sustainability. In this paper we study possibilities that allow different perspectives of sustainability to emerge and develop in discussions. We focus on the conflicting perspectives of the intertwined dimensions in some main theoretical models in combination with the use of Wertsch’s function of speech framework to construct a conflict reflection tool. As an illustrative case, we apply this conflict reflection tool to an analysis of a discussion among seven secondary school teachers on climate change. The results in this particular example show the dynamics of speech genre and content in developing different perspectives. We conclude our paper with a discussion of the conflicting view of the integrated dimensions of sustainability in relation to an agonistic pluralistic approach, and we consider its relevance in an educational context.

The research is an investigation of teachers’ experience of working with socio-scientific issues (SSI). A large group of teachers (55) chose one of six cases with the characteristics of SSI and were free to organize the work as they found appropriate. The research focuses on how teachers chose content, organized their work and experienced the students’ interest and learning. The teachers answered a questionnaire after working with the cases and seven of them were interviewed to provide in-depth understanding of issues raised in the questionnaire. The teachers found the SSI to be current topics with interesting content and relevant tasks and they felt confident about the work. They were quite content with the students’ learning of scientific facts, how to apply scientific knowledge and to search for information. However, they found that the students did not easily formulate questions, critically examine arguments or use media to obtain information about the task. The interviewed teachers did not find this work new, but they organized it as ‘a special event’. They understood SSI work as ‘free’ work and group work was frequent, but only a few of the teachers developed explicit strategies for teaching SSI. They had different ideas about learning but they all talked about knowledge as a set of facts to be taken in by the students. They all included elements of SSI but mostly to introduce the regular science content. However the teachers started to reflect upon the potential of using SSI to cover more goals in the curriculum.

Ska man vaccinera sig mot influensa, även om det finns risk för biverkningar? Är strålningen från mobiltelefoner farlig eller inte? Och vad stoppar vi i oss? Kan vi lita på att maten vi köper är bra? Även om de flesta grundskoleelever inte kommer att välja en naturvetenskaplig yrkesbana kommer de att möta den här typen av frågor, som kallas för samhällsfrågor med naturvetenskapligt innehåll (SNI). Denna bok erbjuder både en teoretisk ram och konkreta exempel på hur man kan jobba med SNI i skolan. Elever tycker ofta att frågorna är intressanta, men de fastnar lätt i att diskutera personliga värderingar och det finns en risk att det naturvetenskapliga innehållet och samhällskontexten går förlorad. Läraren behöver därför stödja eleverna i arbetet med att formulera frågor, arbeta källkritiskt, argumentera, planera undersökningar samt värdera resultat och information. Syftet med arbetsmetoderna är att stärka elevernas möjligheter att använda sig av dessa kunskaper i vardagslivet. Författarna har under tre år bedrivit ett forskningsprojekt om SNI i grundskolan. Erfarenheter och resultat från detta projekt ligger till grund för boken.

This research project aims to investigate how students in lower secondary school experience work with socioscientific issues (SSI). The six socioscientific cases developed and used in this project are relevant according to characteristics of SSI and to the national curriculum. Approximately 1,500 students in Sweden have worked with one SSI case chosen by the teachers. A questionnaire-based instrument was used to measure the affective domain of students’ attitudes towards and interest in science before starting to work with the case and a second questionnaire after finishing a case. The second student questionnaire, measured the situational characteristics of the SSI work and perceived cognitive and affective outcomes. According to the students’ self-reported experience, all cases were interesting and related to a current issue. Most cases were equally interesting to boys and girls, the only exception was You are what you eat, which girls found more interesting than boys did. Almost all students claim that they learnt new facts, learnt to argue for their standpoint and to search and evaluate information during the work with the cases. The girls’ average scores were higher on several aspects of learning outcomes. Furthermore the students, especially the girls, perceived that the outcome of working with SSI had relevance for their future, with some cases more relevant than others. The more interesting the student found the case, the more they claimed they learnt. The students do not, however, claim that they learnt more science than during ordinary lessons.

This article reports on a study of how teenagers made their decision on whether or not to vaccinate themselves against the new influenza. Its purpose was to identify connections between how teenagers talk about themselves and the decision they made. How do the teenagers construct their identities while talking about a specific socio-scientific issue? Seven teenagers between 17 to 19 years of age participated in the study. The informants were requested to document in video diary situations in which their decisions about the vaccination were discussed. All the teenagers recorded their diaries during the weeks of the vaccination programme. The students were also interviewed 1-4 weeks after completing their diaries. A discourse psychology framework (Potter and Wetherell, 1987) was used to analyse the video diaries and the interviews. In this context, decision-making on a socio-scientific issue must be understood as an appropriation and use of discursive repertoires, and also as meaning-making in relation to other fields, such as society and identity. It must also be understood in relation to the use of science repertoire - or actually, the school science repertoire – how available is this discourse in different contexts outside school? The repertoires were categorised into two main types; experienced emphases and important actors. The first included the categories of risk, solidarity and knowledge. The second included family and friends, media, school and society. The school repertoire was seldom used by the students, indicating that school and science education seem not to be an interpretative repertoire available to them. Instead, the risk, solidarity, family and friends and the media repertoires were available in their talk about vaccination. These results indicate the need to use media reports in dealing with scientific literacy and also in risk assessment discussions in school. It also indicates the importance of relating school science closely to the students’ daily life.

Explanations for a decline in the number of students studying chemistry at advanced level all over the world have been sought for quite some time. Many students do not find chemistry relevant and meaningful and there have been difficulties in developing school chemistry courses that engage students sufficiently and tempt them to further studies in the field. In this study, Swedish upper secondary school students (Ns=372) and their teachers (Nt=18) answered a questionnaire on their experiences of the content and the working methods of their chemistry course. They were also given the opportunity to express ideas on how to make chemistry courses more interesting and meaningful. The results point out some subject areas as both easy and interesting, e.g. atomic structure; while other areas are hard to understand but still interesting, e.g. biochemistry. The students find chemistry lessons teacher-centred, something they appreciate. When teachers and students gave suggestions on how to improve the relevance of chemistry education at upper secondary level, more laboratory work and connections to everyday life were the most common proposals. But on the whole, these students seem quite satisfied with their chemistry courses.

We have investigated how chemistry textbooks use models of redox reactions in different subject areas, how they change models between and within the topics, and how they deal with specific learning difficulties identified in the literature. The textbooks examined were published for use in the natural science programme in Swedish upper secondary schools and in the UK A-level course. As a starting point, the defined redox models found in the literature were used to investigate the textbooks. The results show that all redox models are used with the addition of alternative representations. Authors exclusively use the electron and the oxidation number models in inorganic chemistry. In organic chemistry, the oxygen and hydrogen model are used, and in biochemistry mainly hydrogen and alternative representations. There is no guide to changes of models between the subject areas. However, within the inorganic chemistry, authors guide model change which was not identified in either organic or biochemistry. Regarding the learning difficulties, the authors dealt with just a few of them.