Let The Right One In. Excluding And Including Effects In Swedish National Tests in Chemistry
Author(s):
Marie Ståhl (presenting / submitting)
Conference:
ECER 2014
Format:
Paper

Session Information

27 SES 11 C, Values, Norms and Gender Issues

Paper Session

Time:
2014-09-04
17:15-18:45
Room:
B018 Anfiteatro
Chair:
Ingrid Maria Carlgren

Contribution

In order to explore norms and values that may affect student’s identity and interests, the Swedish national assessments in chemistry in grade nine of compulsory school, were analysed. It is a critical discourse analysis that builds on socio culture and feministic theories. The research questions posed: what norms and values constitute the chemistry discourse in the tests?  How is chemistry mediated, in relation to norms and values concerning people, animals, nature and society?

The report from the ROSE project (Sjøberg & Schreiner 2010) has contributed with an international overview of young people's spheres of interest and attitudes toward science and technology. The key findings show that 15 year-old students harbouring a diminishing interest in science and technology in the rich part of the world and that this is especially noticeable in the Nordic countries and Japan. Moreover girls have less interest for science and technology than boys at the same age and that this difference is growing.

Teaching in science has influence on whether the students feel included or excluded from the science context, and in the long run if they can identify with the subjects (Brickhouse 2000, Hasse 2002, Danielsson 2009). Only “the right one” may come into this epistemological community (Miller 2006), that is, into the special socio cultural group that harbour a common concept of knowledge that gradually becomes internalized into the individuals, in terms of mindsets and way of speaking and thinking. This is supported by the socio-culture theories in how thinking is socially constructed and internalized in the way people speak and act in special discourses and thereby valued by the culture (Vygotskij 1986, Dewey 2009).

Feminist researchers have pointed out that science is male-coded (Harding 1986, Fox Keller 1985, Haraway1988, Brickhouse 2001, Gilbert 2001). Harding also claims that science in its various forms, whose power and influence shows itself by everything connected with our society’s structure, to the way we think, feel and act, is not only androcentric but also racial, cultural and class segregating (Harding 1986).

Many students have trouble to identify with the stereotypical picture of the scientist. They cannot find that school science is consistent with what they value as essential and interesting, compared to other subjects in school and considering future jobs, careers and health aspects (Sjøberg & Schreiner 2010). There are implicit and sometimes explicit knowledge, alongside with the science contents that affect students’ views of the subject and their thoughts about societal norms and values (W. Klafki 1997, T. Englund 1997, L. Östman 1995, D. Roberts 1998). This explicit and implicit knowledge occur in textbooks, assessments and science activities among other things, and by the teachers influence. They may differ and be shaped by different traditions, beliefs and purposes of teaching which in turn is based on political guidelines, historical and social factors and the relationship to the scientific disciplines (Englund 1997). These phenomena have, within the science education, been explored by Douglas A. Roberts (1982, 1988, 1998) and by Leif Östman (1995) through there analyses of textbooks and curriculums in school science in North America and in Sweden. Östman (1995) describes these norms and values as knowledge that we take with us in life and which influence how we for example relate to other people and nature.

 

Method

The empirics used in this study consist of four national tests in chemistry (2009-2012), for Swedish students in the ninth grade, containing 25 -30 tasks each, and the attached guidelines that show how to assess student responses. The tests aim to support an equal and fair evaluation and grading, to concretize the goals in chemistry syllabus and increase the student’s achievement (skolverket 2014). The discourse analysis used is inspired by Faircloughs critical discourse theories (2003). Images and texts in the tests have also been analysed using multimodal tools ( Kress & Leeuwen 2006), Björkvall 2010). Each task has been analysed based on specific properties, i.e. if there are dichotomies, hierarchies, an elitist view, metaphors and emotions, whether the information relates to the reader or not and at what level this occurs, which epistemological beliefs that is mediated as well as choice of knowledge content made, if the text is inclusive or exclusive of any group and if the text is open/closed, and/or moving between micro and macro level. Repeated readings and comparisons of the data has been conducted. To ensure reliability other researchers have been invited to analyse the data. The results obtained has been compared with the previous ones and been found equivalent. From the analyses appeared certain characteristics. Test tasks were grouped based on the most dominant features. One example of a group is the boundary discourse group that consists of tasks with explicit norms that set boundaries for how to act and argue within the chemistry discourse. The analysis resulted in eight different task discourses that in its entirety formed the chemistry discourse.

Expected Outcomes

The everyday perspective and modern business in chemistry is rare in the tests and negative effects hardly ever is discussed or asked for. Instead an overall image of chemistry from “the olden days” is painted. That is, when negative consequences from chemistry inventions not yet were detected and nature was used regardless of consequences. Areas that traditionally have been and still are mainly represented by women, or have a more even gender distribution, are rarely used in the tests. Pictures of girls are put in traditional settings, and in one of the tests, portrayed as clumsy and scientific ignorant. Moreover, there are tasks that ask students to choose the most scientific arguments, among others, concerning discussions within sustainable development issues. These tasks, as well as the tasks were students are asked to give a response to what positive impacts chemistry inventions have had on society, are examples of how students argumentations are restricted. Either they are to choose someone else’s arguments or describe only the good side of a complex question. The conclusion is that the boundaries for how to argue and act in the science community are tight. It is an elitist view that emerges from words, pictures and content selection in the Swedish national assessments in chemistry. Only those that are “scientifically correct” may come into the community, preferable men that have a natural scientific approach. This is not only because they are reflected against what they are not, i.e. stereotypical images of girls, but also by the choice of male-oriented subjects that is focused on, cars, the petroleum industry and metal extraction. Thus the gender bias in science is clearly visible, which has also been seen in previous research (Harding 1986, Fox Keller 1985, Haraway 1988).

References

Björkvall, A. (2010). Den visuella texten: Multimodal analys i praktiken. [The visual text: Multimodal analysis in practice]. Uppsala: Hallgren & Fallgren. Brickhouse, N. W., Lowerly, P., Schultz K. (2000). What kind of girls Does Science? The Construction of School Science Identities. Journal of Research in Science Teaching. 37(5), 441-458. Brickhouse, N.W. (2001). Embodying Science: A Feminist Perspective on Learning. Journal of Research in Science Teaching, 38(3). Danielsson, A. T. (2009). Doing Physics – Doing Gender. Uppsala: Uppsala University. Dewey, J. (2009). Demokrati och utbildning. [Democracy and Education]. Göteborg: Daidalos. Englund, T. (1997). Undervisning som meningserbjudanden. [Teaching as an offer of meaning]. In Uljens, M. (ed.): Didaktik: teori, reflektion och praktik. [Didactics: theory, reflection and practice]. Lund: Studentlitteratur. Fairclough, N. (2003). Analysing Discourse. Textual Analysis for Social Research. London: Routledge. Fox Keller, E. (1977). The Anomaly of Woman in Physics. In S. Ruddickand & P. Daniels (Eds.): Working It Out ( 78-91). New York: Pantheon Books. Haraway, D. (1988). Situated Knowledges: The Science Question in Feminism and the Privilege of Partial Perspective. Feminist Studies, 14, 575-599. Hasse, C. (2002). Gender Diversity in Play with Physics: The Problem of Premises for Participation in Activities. Mind, culture, and activity. 9(4), 250-269. Harding, S. (1986). The Science Question in Feminism: Ithaca, New York: Cornell University Press. Klafki, W. (1997). Kritisk- konstruktiv didaktik.[Critical-constructive Didaktik]. In Uljens M. (ed.): Didaktik: teori, reflektion och praktik. [Didactics: theory, reflection and practice]. Lund: Studentlitteratur. Kress, G, & van Leeuwen, T. (2006). Reading images: A grammar of visual design. 2nd edition. London: Routledge. Miller, P. H. (2006). Contemporary Perspectives from Human Development: Implications for Feminist Scholarship. Signs, 31(2), 445-469. Roberts, D.A. (1988). What counts as science education. In Fensham Peter. (ed.): Development dilemmas in science education. London: Falmer Press. Roberts, D.A. (1982). Developing the concept of “Curriculum emphases” in science education? Science Education, 62(2), 243-260. Roberts, D.A., Östman, L. (1998). Problems of Meaning in Science Curriculum. New York: Teachers College Press Sjøberg, S., Schreiner, C. (2010). The ROSE Project. An Overview and Key Findings. Oslo: University of Oslo. Skolverket (2014) Bedömning: Nationella prov & bedömningsstöd. [Assessment: National tests & assessment support]. http://www.skolverket.se/nationell-prov-bedomningsstod [2014-01-29] Vygotskij, Lev S., Koyuzelin (rev. ed.)(1986). Thought and Language. Cambriddge Mass.: MIT Press, cop. Östman, L. (1995) Socialisation och mening. No-utbildning som politiskt och miljömoraliskt problem. [ Socialization and meaning. Science education as a political and environmental moral problem]. Uppsala: Acta Universitatis Upsaliensis.

Author Information

Marie Ståhl (presenting / submitting)
Uppsala University
Centre For Gender Research
Uppsala

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