Abstract
Students' images of science and scientists are generally assumed to influence their related subject choices and aspirations for tertiary education within science and technology. Several research studies have shown that many young people hold rather stereotypical images of scientists, making it hard for them to see themselves as future scientists. Adolescents' educational choices are important aspects of their identity work, and recent theories link individual choice to the perceived match between self and prototypical persons associated with that choice. In the present study, we have investigated images of scientists among the segment of the upper secondary school students (20 % of the cohort) from which future Danish scientists are recruited. Their images were rather realistic, only including vague and predominantly positive stereotypical ideas. With a particular Science-and-Me (SAM) interview methodology, we inquired into the match between self- and prototypical-scientists (N = 30). We found high perceived similarity within a core of epistemological characteristics, while dissimilarities typically related to a social domain. However, combining interview data with survey data, we found no significant statistical relation between prototype match and aspirations for tertiary education within science and technology. Importantly, the SAM dialogue revealed how students negotiate perceived differences, and we identified four negotiation patterns that all tend to reduce the impact of mismatches on educational aspirations. Our study raises questions about methodological issues concerning the traditional use of self-to-prototype matching as an explanatory model of educational choice.
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Notes
Together, their contributions to tertiary 2012 uptakes were Physics = 89 %, Biology = 86 %, Master of Engineering = 87 %, Math = 79 %. While STEM uptakes are dominated by the larger general upper secondary school system, the technical upper secondary school contributes 40 % to some Engineering programs.
Distribution: <5 differences = 10 %; 5–10 differences = 23 %; 10–15 differences = 60 %; >15 differences = 7 %
Simply defined as: number of similarities/total number of traits selected by the student
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Appendices
Appendix 1: Science-and-Me—traits included in pick-list
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1.
Aim at personal development
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2.
Attractive (sexual)
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3.
Autonomy (self-regulated and independent)
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4.
Critical towards one's own/other peoples' work
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5.
Collaborative
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6.
Curious
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7.
Decision-maker (in one's personal life)
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8.
Empathy
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9.
Ethical behavior (work related)
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10.
Family person
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11.
Hard working
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12.
Healthy
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13.
Individualist
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14.
Interesting
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15.
Inventive
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16.
Knowledgeable and literate
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17.
Leadership
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18.
Logic and analytic
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19.
Narrow minded
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20.
Objective
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21.
Powerful
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22.
Politically involved
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23.
Run by attitudes and values
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24.
Systematic
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25.
Sense of fairness
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26.
Socially competent
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27.
Targeted
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28.
Wish to understand the world
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29.
Wish to discover the world
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30.
Wish to gain new knowledge
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31.
Wish to solve the world's problems
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32.
Well spoken
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33.
Well dressed
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34.
Wish to do good for other people
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35.
Want to be recognized
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36.
Want to earn a lot of money
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37.
Odd/peculiar
Appendix 2: Survey questions
Images of science and scientists
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1.
Only men are studying and working within science and technology
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2.
Doing research within science and technology, you usually collaborate with other researchers, sometimes in research teams
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3.
There is not much room for creativity within science—it is just following rules and procedures
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4.
Within science and technology, new challenges keep appearing, so researchers will constantly have to develop
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5.
Scientific researchers work within laboratories with little sense of how their research is being used
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6.
Employees within science and technology work much more than 40 h a week
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7.
Typically, scientific researchers themselves decide what to research
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8.
Progress within science and technology most often improves the living conditions of people
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9.
Science is important in order to understand the world
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10.
Progress within science and technology usually enhances the economy of society
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11.
Scientific knowledge is the only kind of knowledge that you can trust
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12.
You must be a little odd/peculiar to work within science and technology
Utility value of school science
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1.
In science and mathematics, I learn many things useful for my future education and career
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2.
Knowledge about science and mathematics is useful in many ways in an out-of-school context
Aspirations and knowledge about tertiary studies
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1.
I know very well what it is like to be a university student
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2.
I know about the admission requirements for different university studies
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3.
I have insights into different science education options at university level
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4.
I think I will go for an education at university
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5.
I think I will go for an education within the field of science and technology
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6.
I know a lot about which jobs a science education can lead to
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7.
What kind of future job and education are you aiming at? What are your considerations? (Free text writing)
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Andersen, H.M., Krogh, L.B. & Lykkegaard, E. Identity Matching to Scientists: Differences that Make a Difference?. Res Sci Educ 44, 439–460 (2014). https://doi.org/10.1007/s11165-013-9391-9
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DOI: https://doi.org/10.1007/s11165-013-9391-9