Critical Thinking in Science Education: Nurturing Inquiry, Socio-Scientific Issues, and Innovation

A special issue of Education Sciences (ISSN 2227-7102). This special issue belongs to the section "STEM Education".

Deadline for manuscript submissions: closed (15 January 2026) | Viewed by 7505

Special Issue Editors


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Guest Editor
Department of Experimental and Social Sciences Teaching, Faculty of Teacher Training, Universitat de València, Avinguda dels Tarongers, 4, 46022 València, Spain
Interests: STEM education; scientific argumentation; inquiry-based learning; critical thinking in science; physics and chemistry education; nature of science

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Guest Editor
Department of Mathematics, Social and Experimental Sciences Didactics, Universidad de Málaga, Malaga, Spain
Interests: socio-scientific issues; STEM education; sciences inquiry

Special Issue Information

Dear Colleagues,

We consider critical thinking (CT) to be a distinctive way of reasoning, aimed at investigating the veracity of arguments, formulating evidence-based judgments, making informed decisions, and actively participating in socio-environmental situations. CT contains elements of emancipation and components of argumentation, which make the questioning of authority possible.

However, despite the impact of science on our well-being and development, it is increasingly common to encounter personal, political, and institutional positions that challenge scientific claims on various topics (climate change, vaccination, nutrition, etc.), promoting pseudoscientific and denialist attitudes, opinions, and actions that threaten the present and future well-being of society. These attitudes are widely disseminated through mobile phones, the Internet, and, in particular, social media.

Science education should aim to create a scientifically literate citizenry capable of responding to scientific and technological advances, such as those offered by STEM education. As UNESCO highlights in its 2021 Science Report, “Scientific literacy can be an effective buffer against anti-scientific movements that seek to sow doubt in the public mind by spreading information they know to be false”.

It is crucial to emphasize the importance of inquiry-based science education, which promotes the search for and use of evidence, and this type of education should foster a citizenry that develops science-based critical thinking to face the challenges and needs of democratic societies.

Moreover, it has been demonstrated that socio-scientific issues (SSIs), due to their controversial nature, facilitate the development of CT by enabling dominant discourses to be questioned, contributing to problem-solving, formulating inferences, and making decisions. These contributions highlight the need to question the validity of arguments, reject unfounded conclusions, detect reasoning errors, and evaluate the credibility of information sources, promoting citizens’ scientific argumentation skills and their promotion through science education.

Therefore, CT requires controversial scenarios to develop intellectual independence skills and motivate active student participation. This enables them to engage in public discussions about pseudoscientific or denialist ideas and consider the legal, political, and environmental aspects of socio-scientific issues and, in turn, provides elements of critical rationality and fosters awareness of social responsibility. Thus, SSIs serve as contexts for practicing critical competencies.

Several suggested themes could be considered:

  1. Defining and measuring critical thinking in science education;
  2. The effectiveness of inquiry-based learning in fostering critical thinking;
  3. Critical thinking and socio-scientific issues;
  4. Critical thinking vs. ideas not based on scientific evidence (pseudoscience, denialism, and anti-science);
  5. Integrating critical thinking, problem-solving, and inquiry into STEM education;
  6. The adequate training of teachers to foster critical thinking in students;
  7. Digital tools, social media, and critical thinking.

Prof. Dr. Jordi Solbes
Prof. Dr. Teresa Lupión-Cobos
Guest Editors

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Keywords

  • critical thinking
  • socio-scientific issues
  • sciences inquiry

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Published Papers (8 papers)

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19 pages, 1117 KB  
Article
Critical Positions in the Evaluation of “One Health”-Related Socio-Scientific Issues
by Inés Martínez-Pena, Blanca Puig and Araitz Uskola Ibarluzea
Educ. Sci. 2026, 16(3), 493; https://doi.org/10.3390/educsci16030493 - 21 Mar 2026
Viewed by 302
Abstract
Critical thinking is essential for managing socio-scientific issues (SSIs) and can be enacted through informal and rational reasoning for decision-making. Addressing SSIs from a systemic view, such as the One Health (OH) view, can improve their comprehension. This study explores how a group [...] Read more.
Critical thinking is essential for managing socio-scientific issues (SSIs) and can be enacted through informal and rational reasoning for decision-making. Addressing SSIs from a systemic view, such as the One Health (OH) view, can improve their comprehension. This study explores how a group of 9th graders engaged in the practice of critical thinking in a teaching sequence that included different SSIs (antibiotic resistance, microplastic pollution, and avian flu) from an OH vision. The research questions are: (1) What is the ability of students to develop a critical position in the evaluation of claims related to SSI with an OH view? (2) What are the interactions between students’ critical positions and OH views expressed by them in different SSI contexts? Written answers from two activities at different moments of the sequence were analyzed qualitatively. Most students did not develop a critical position in the beginning; however, they did so at the end. No interaction was observed between the ability to develop a critical position and the OH view at the beginning. Students with a critical position at the end showed the highest levels of OH view. These results highlight the need to further investigate the relationships between critical positions and OH views. Full article
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23 pages, 2976 KB  
Article
Doctor’s Learning Environment: Fostering Critical Thinking in 4-Year-Old Children
by Antonio Joaquín Franco-Mariscal, Ana María Rodríguez-Melero, María-del-Mar López-Fernández and María José Cano-Iglesias
Educ. Sci. 2026, 16(3), 491; https://doi.org/10.3390/educsci16030491 - 21 Mar 2026
Viewed by 362
Abstract
The development of critical thinking from an early age is essential in science education, and despite its importance, there is still little research in early childhood education. This exploratory study presents a learning environment around a daily life problem faced by preschoolers, related [...] Read more.
The development of critical thinking from an early age is essential in science education, and despite its importance, there is still little research in early childhood education. This exploratory study presents a learning environment around a daily life problem faced by preschoolers, related to the human body and health, carried out through role-play and inquiry, aimed at developing critical thinking within the knowledge application domain in 4-year-old children. The study involved a sample of 9 children from a preschool in Málaga (Spain). Data were collected through observations, dialogues, field notes, and children’s productions. The assessment of progress in the application of scientific knowledge and understanding of science encompassed a comprehensive set of criteria aligned with Bloom’s revised taxonomy. The findings indicate greater progress in the remembering compared to understanding. Specifically, 76.18% of the children reached the achieved level in listing, 72.21% in explaining, 62.50% in relating, and 58.33% in identifying. This suggests that, at early ages, learning environments designed around daily-life health contexts can contribute to the development of certain aspects of critical thinking. Full article
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27 pages, 318 KB  
Article
Fostering Critical Thinking in STEM Education
by Oliver Straser, Matija Bašić, Michiel Doorman, Lucas Weinberg, Suzanne Kapelari and Katja Maaß
Educ. Sci. 2026, 16(3), 461; https://doi.org/10.3390/educsci16030461 - 17 Mar 2026
Viewed by 767
Abstract
Critical thinking is widely regarded as a key competency in STEM education, particularly in light of 21st-century challenges such as digitalisation, climate change, and technological transformation. Although critical thinking is included in educational policies, its implementation in classroom practice remains limited, partly resulting [...] Read more.
Critical thinking is widely regarded as a key competency in STEM education, particularly in light of 21st-century challenges such as digitalisation, climate change, and technological transformation. Although critical thinking is included in educational policies, its implementation in classroom practice remains limited, partly resulting from a lack of a common understanding that is both theoretically grounded and usable for teachers. In this paper, we introduce a rubric that aims to support the integration of critical thinking into STEM education. The rubric is based on an epistemic understanding of critical thinking rooted in the scientific process of discovery. It was developed through an iterative design process grounded in the Synergy Model of Critical Thinking and piloted with pre- and in-service teachers in four European countries. Their feedback was collected using qualitative questionnaires and focus groups and was analysed using a comparative analysis of the pilot implementations. Results suggest that the rubric captures the central aspects of critical thinking from a scientific perspective and provides a useful reference point for STEM teaching and reflection. However, its use as an assessment tool for critical thinking in all its manifestations is limited, due to its reliance on subject-specific knowledge. Overall, the findings indicate that this rubric could be used to flexibly support instructional design and professional reflection, rather than as a standardised instrument for assessing student performance. Full article
20 pages, 343 KB  
Article
Fostering Critical Thinking Through Interdisciplinary and Transdisciplinary Education—A Boundary-Crossing Approach in Biomedical Science Education
by Elianne M. Gerrits, Cathelijne M. Reincke, Annelies Pieterman-Bos and Marc H. W. Van Mil
Educ. Sci. 2026, 16(2), 348; https://doi.org/10.3390/educsci16020348 - 22 Feb 2026
Viewed by 531
Abstract
Critical thinking (CT) is essential for navigating the complex socio-scientific issues in contemporary biomedicine. These issues cross disciplinary boundaries and involve multiple societal stakeholders. Interdisciplinary and transdisciplinary (ITD) education therefore provides a valuable context for developing CT by confronting students with diverse forms [...] Read more.
Critical thinking (CT) is essential for navigating the complex socio-scientific issues in contemporary biomedicine. These issues cross disciplinary boundaries and involve multiple societal stakeholders. Interdisciplinary and transdisciplinary (ITD) education therefore provides a valuable context for developing CT by confronting students with diverse forms of knowledge and prompting reflection on their disciplinary assumptions. In this study, boundary crossing is used as a pedagogical framework, with a focus on identification (understanding alternative perspectives) and reflection (examining one’s own assumptions). We examine how such ITD education can foster CT by enhancing students’ appreciation of disciplinary and societal viewpoints. Data from a pre- and post-course assignment were analyzed using a convergent mixed-methods approach. Students ranked the relevance and effectiveness of sessions engaging with different perspectives and identified educational design elements that contributed to broadening their biomedical outlook. Findings indicate shifts in how students perceived the relevance of different perspectives. Particularly, appreciation of the legal perspective increased. Sessions were considered most effective when involving interaction with perspective owners, interactive learning methods, and clear instructional design. The results suggest that boundary-crossing pedagogies can support CT in higher education by engaging students in reflective engagement with different disciplinary and societal perspectives. Full article
19 pages, 546 KB  
Article
Development of Critical Thinking in Pre-Service Early Childhood Education Teachers Using Scientific Inquiry Practices in STEM Projects
by Teresa Lupión-Cobos, María Marta Alarcón-Orozco, Mario Caracuel-González and Ángel Blanco-López
Educ. Sci. 2026, 16(2), 330; https://doi.org/10.3390/educsci16020330 - 18 Feb 2026
Cited by 2 | Viewed by 596
Abstract
Critical thinking (CT) is increasingly recognized as a transversal competence within STEM education, yet it is often addressed implicitly in preservice teacher training. This study analyzes the development of critical thinking in 130 Preservice Early Childhood Education Teachers (PECETs) who, during the 2024–2025 [...] Read more.
Critical thinking (CT) is increasingly recognized as a transversal competence within STEM education, yet it is often addressed implicitly in preservice teacher training. This study analyzes the development of critical thinking in 130 Preservice Early Childhood Education Teachers (PECETs) who, during the 2024–2025 academic year, participated in a training programme designed from a STEM perspective and grounded in scientific inquiry. A mixed-methods approach was used to examine the teaching unit elaborated by PECETs with a rubric that assessed stages of inquiry, as well as to analyze their final reports for evidence of connections between CT and STEM. The findings revealed strong scientific thinking but only superficial links to STEM and CT suggesting progress in participants’ scientific reasoning and analytical and reflective competence. However, evidence of explicit STEM integration and CT justification remained limited. These results confirm the formative potential of inquiry-based STEM education for supporting CT development in early childhood preservice teacher education, while highlighting the need for more explicit scaffolding of inquiry phases, structured reflection opportunities, and collaborative argumentation tasks to strengthen conceptual integration and deepen critical engagement with scientific evidence. Full article
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20 pages, 1424 KB  
Article
Effectiveness of Temporal Survey-Based Programs for Teaching Critical Thinking Skills in Engineering Courses: Analysis of Final Assessments
by Víctor Revilla-Cuesta, Manuel Hernando-Revenga, Ismael Martín, Marta Skaf and Vanesa Ortega-López
Educ. Sci. 2026, 16(2), 306; https://doi.org/10.3390/educsci16020306 - 13 Feb 2026
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Abstract
Peer- and self-critical skills are key to properly performing engineering work, as they allow engineering students to develop critical thinking regarding the quality standards required in this professional field. This research aimed to determine whether educational experiences based on temporal survey-based programs enabled [...] Read more.
Peer- and self-critical skills are key to properly performing engineering work, as they allow engineering students to develop critical thinking regarding the quality standards required in this professional field. This research aimed to determine whether educational experiences based on temporal survey-based programs enabled the successful development of these skills in students enrolled in six courses in the final years of their engineering degrees. To this end, an educational experience of such a nature was implemented throughout a complete academic year, aimed at fostering peer- and self-critical skills through continuous formative assessment. The experience involved six student presentations evaluated by both teachers and peers using a Likert-scale survey encompassing four dimensions: explanatory ability, file quality, attitude, and overall assessment. Subsequently, these assessments were provided to students to encourage reflection on the scores assigned and their own work. The results revealed strong alignment between teacher and peer evaluations, with average deviations below 7%, demonstrating effective development of peer-critical competences. These results were also verified by means of analyses of variance. The greatest consistency was found in “explanatory ability” and “overall assessment,” while “file quality” and “attitude” showed wider variability, experience playing a key role in their precise evaluation. Peer evaluations tended to be more uniform than teachers’, reflecting students’ limited experience in discerning subtle performance differences. Additionally, 30% of students expressed willingness to repeat their final presentation to achieve a higher grade, evidencing substantial self-critical reflection. Qualitative analysis conducted through deductive cross-coding indicated that this motivation stemmed from both intrinsic self-improvement and peer-related responsibility. Overall, the results confirm that sustained peer- and self-assessment activities can effectively cultivate critical thinking skills among engineering students, although continuous practice is required to consolidate these competences. Future research could explore the more adequate course types, and students’ ages to perform such kind of educational experiences. Full article
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14 pages, 477 KB  
Article
An SSI-Based Instructional Unit to Enhance Primary Students’ Risk-Related Decision-Making
by Miki Sakamoto, Etsuji Yamaguchi, Tomokazu Yamamoto, Motoaki Matano, Nobuko Ohmido and Rumiko Murayama
Educ. Sci. 2026, 16(1), 143; https://doi.org/10.3390/educsci16010143 - 17 Jan 2026
Viewed by 555
Abstract
Socioscientific issues (SSIs) provide meaningful contexts for developing students’ competencies in scientific evaluation and decision-making. This study developed an SSI-based instructional unit to support primary school students in making decisions about genome-edited fish by considering risks and benefits and proposing risk mitigation. The [...] Read more.
Socioscientific issues (SSIs) provide meaningful contexts for developing students’ competencies in scientific evaluation and decision-making. This study developed an SSI-based instructional unit to support primary school students in making decisions about genome-edited fish by considering risks and benefits and proposing risk mitigation. The study aimed to examine the unit’s effectiveness in improving students’ risk-related decision-making and their attitudes toward critical thinking and risk. Sixty-three fifth-grade students participated in an 18-lesson unit comprising two phases: information gathering and risk management practice. Students completed three decision-making tasks and a post-unit questionnaire on related attitudes. Written arguments were analysed using a rubric based on claims, risk knowledge, benefit knowledge, and risk mitigation. The results indicated that the unit improved the quality of students’ socioscientific arguments. By the final task, about 60% of arguments reached the highest level, demonstrating integration of risk knowledge and corresponding mitigation. However, students’ risk–benefit emphasis ratings showed that their decisions remained predominantly risk-focused, and questionnaire data revealed a persistent zero-risk mindset. These findings provide empirical evidence that an SSI-based unit incorporating risk management practice can foster primary students’ risk-related socioscientific decision-making. Further refinement is needed to shift students’ risk attitudes and support more balanced risk–benefit reasoning. Full article
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21 pages, 1579 KB  
Systematic Review
Systematised Review of Know-How in Teacher Training: Science–Technology–Society Teaching in the Primary School Classroom
by Carmela García-Marigómez, Vanessa Ortega-Quevedo, Noelia Santamaría-Cárdaba and Cristina Gil-Puente
Educ. Sci. 2026, 16(1), 112; https://doi.org/10.3390/educsci16010112 - 13 Jan 2026
Cited by 1 | Viewed by 729
Abstract
Scientific literacy is a key element in today’s society, shaping everyday life and fostering informed decision-making and critical thinking. However, the traditional transmission of science, among other factors, has fostered a simplistic and negative view of this field of knowledge, leading to a [...] Read more.
Scientific literacy is a key element in today’s society, shaping everyday life and fostering informed decision-making and critical thinking. However, the traditional transmission of science, among other factors, has fostered a simplistic and negative view of this field of knowledge, leading to a detachment of the population from it. In this context, teachers need to assume a transformative role. To this end, it must be recognised that didactic change cannot be limited to cognitive aspects, given the relevance of attitudes as a key component of professional knowledge and as a driver of a consolidated shift. Concern about this reality leads us to describe the structure and content of scientific knowledge related to the study of Primary Education teachers’ attitudes towards the teaching of the Nature of Science and Technology. A mixed-methodological design was employed, comprising a documentary-bibliometric study with a science-mapping approach and documentary analysis. The results showed that studies often focus on the cognitive component of attitudes, mainly on beliefs about knowledge or self-efficacy. However, studies on affective or conative components remain scarce, and none have been found that comprehensively address all three components of attitudes, despite their potential to provide a deeper understanding of their role in educational change. The need to address teachers’ attitudes holistically is highlighted to better understand the evaluative and motivational factors that guide teaching practices. Likewise, the importance of moving towards studies based on educational interventions that promote the development of science as useful for life is emphasised. Full article
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