Empowering Minds: using critical thinking to challenge gender stereotypes in STEM

Research from all over the world has long since established that stereotypes form early in life. Gender stereotypes are no exception to this rule; they have been found to be present in kindergarten-aged children, and children as young as 5 have been found to hold already deeply ingrained ideas around gender norms across the OECD1. These stereotypes have a profound impact on childrenā€™s aspirations and beliefs about what is possible for them as they grow up.

A study in the US2 has shown that even very young children believe that boys are more interested in STEM subjects, including computer science and engineering, than girls. This stereotype has a tangible impact on childrenā€™s motivation in these subjects; young girls who have been told that boys are more likely to be interested in a STEM activity subsequently demonstrate less interest in that activity themselves. They are less likely to choose to study these subjects, and less likely to feel a sense of belonging within them. And this is only looking at the stereotype of who is more interested in STEM ā€“ when it comes to stereotypes about who is more talented, the impact is compounded even further. A global report3 conducted across 72 countries explored gender-talent stereotypes, whereby boys are assumed to have more ā€˜rawā€™ or ā€˜naturalā€™ talent than girls. The stronger the gender-talent stereotype in a society, the more likely girls are to internalise the belief that they do not have the natural talent required to succeed at something which is not taught, or which is traditionally associated with boys.

Taken together, these issues lead to far fewer girls believing that they should, could, or even want to pursue STEM subjects. Globally, women make up only 29.2% of the STEM workforce, despite comprising nearly 50% of non-STEM jobs4. In the EU, only 1 in 3 STEM graduates are women5, but even in countries where greater numbers of women enrol in STEM courses, this does not always translate to a more equal workforce: at 43%, India has the highest rate of female STEM graduates in the world ā€“ and yet women represent only 27% of the countryā€™s STEM workforce6. The existence of such a disparity between men and women in STEM comes back to stereotypes. Research7 shows that women do not pursue careers in STEM because they have not been encouraged to do so, or because the industry is too male-dominated to feel welcoming to them.

So, if stereotypes are causing such an issue, what can we do about it? The answer may lie in developing young peopleā€™s critical thinking skills. Critical thinking ā€“ defined as ā€˜gathering, interpreting, evaluating, or using evidence in a thoughtful, intentional, and critical wayā€™8 - has been identified as a key way to overcome stereotypes, with critical thinking interventions being shown to enhance studentsā€™ abilities to avoid generalised preconceptions. Knowing as we do that stereotypes are developed in very young children, it is vital that these critical thinking interventions are put in place early. Research9 into developing critical thinking skills in early childhood has identified a number of effective methods, including:

  • Classroom interactions and enquiry-based approaches: Enquiry-based learning allows room for children to be active participants in their learning, responding to questions or prompts from their teachers and exploring what they know. This approach can support the development of cognitive skills, including critical thinking. It does, however, rely on a level of prior knowledge in order to be used effectively, and therefore should be used in conjunction with other pedagogical techniques.
  • Questioning techniques: By carefully considering the kinds of questions they ask (e.g. high/low cognitive demand, open-/closed-ended), educators can encourage childrenā€™s reasoning and analysis skills and prompt deeper levels of critical thinking. Probing, high cognitive demand questions which challenge a childā€™s thinking can encourage them to reason and analyse in their answers, while using a mix of open- and closed-ended questions prompts deeper thinking and encourages verbal reasoning.
  • Language for thinking: Educators can scaffold the process of critical thinking in young children by verbalising thinking language (such as ā€˜ideaā€™, ā€˜mindā€™, or ā€˜thinkā€™), which in turn enables these children to understand their own thinking and problem-solving processes. There is also evidence that young children are more able to understand the viewpoints of others when they are taught the language of thinking; children who have been taught words to express comparison (e.g. ā€˜notā€™, ā€˜orā€™, ā€˜sameā€™, or ā€˜differentā€™) or emotion (e.g. ā€˜happinessā€™, ā€˜sadnessā€™, or ā€˜angerā€™), are more able to consider that other people may have different emotions, experiences or perspectives to themselves.
  • Story-based approaches: Children are drawn to stories, and these have long been used as a way to engage young learners in complex topics. Using stories to prompt discussion can enhance childrenā€™s investigation, problem solving and justification skills ā€“ all essential elements of critical thinking. In particular, asking children to work collaboratively in groups with their peers can support them to develop their reasoning and justification skills as they discuss their opinions on the stories they are exposed to. By facilitating and providing support for children to collaborate and discuss their viewpoints, teachers are scaffolding the development of critical thinking.
  • Identify the characteristics of critical thinking: When teachers have a clear understanding of what critical thinking entails and what skills to build (e.g. reasoning and problem solving), they are more able to support the development of these skills. They are also then able to consider the best pedagogical approaches to employ in their classrooms to ensure that these skills are being built. If developing childrenā€™s critical thinking skills can help them to avoid forming harmful stereotypes early, and this in turn can support more girls and young women in pursuing careers in STEM, it seems clear that this deserves the attention of educators around the world.

If developing childrenā€™s critical thinking skills can help them to avoid forming harmful stereotypes early, and this in turn can support more girls and young women in pursuing careers in STEM, it seems clear that this deserves the attention of educators around the world.

1. OECD Education and Skills Today (2021) The Future at Five: Gendered Aspirations of Five-Year-Olds, OECD Education and Skills Today. Available at: https://oecdedutoday.com/gende... (Accessed: 12 June 2024).

2. Master, A., Meltzoff, A.N. and Cheryan, S. (2021) ā€˜Gender stereotypes about interests start early and cause gender disparities in computer science and engineeringā€™, Proceedings of the National Academy of Sciences, 118(48). doi:10.1073/pnas.2100030118.

3. Napp, C. and Breda, T. (2022) ā€˜The stereotype that girls lack talent: A worldwide investigationā€™, Science Advances, 8(10). doi:10.1126/sciadv.abm3689.

4. Global Stem Workforce (2024) Society of Women Engineers. Available at: https://swe.org/research/2023/... (Accessed: 20 June 2024).

5. Magee, R. (2024) More women graduate in STEM but inequalities persist in EU, Research Professional News. Available at: https://www.researchprofession...ā€™s Day. (Accessed: 20 June 2024).

6. Sengupta, D. (2024) More women take to stem at college. but can india inc stem their exit from jobs?, mint. Available at: https://www.livemint.com/news/... (Accessed: 20 June 2024).

7. Over one million women now in STEM occupations but still account for 29% of STEM workforce (2024) IET. Available at: https://www.theiet.org/media/p... (Accessed: 20 June 2024).

8. Critical thinking: Skill Development Framework (2022) Pearson.com. Available at: https://www.pearson.com/conten... (Accessed: 08 July 2024).

9. Oā€™Reilly, C., Devitt, A. and Hayes, N. (2022) ā€˜Critical thinking in the preschool classroom - A systematic literature reviewā€™, Thinking Skills and Creativity, 46, p. 101110. doi:10.1016/j.tsc.2022.101110.

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