Science education in an age of misinformation
Dados Bibliográficos
| ID | 21392679 |
|---|---|
| Autores | Jonathan Osborne (0000-0001-8096-208X, Graduate School of Education Stanford University Stanford California USA, autor correspondente), Daniel Pimentel (0000-0002-1105-4720, Graduate School of Education Stanford University Stanford California USA), Daniel R Pimentel (0000-0001-9700-8727, Stanford University) |
| Ano | 2023 |
| Volume | 107 |
| Fascículo | 3 |
| Páginas | 553-571 |
| Data de publicação | 2023-05-01 |
| Peer Reviewed | Sim |
| Open Access | Sim |
| Tipo | ARTICLE |
| Periódico | Science Education (JOURNAL) |
| Identificadores do periódico | ISSN: 0036-8326 • E-ISSN: 1098-237X |
| Editora | Wiley (PUBLISHER • GB) |
| DOI | 10.1002/sce.21790 |
| OpenAlex | W4324141237 |
| Idioma | EN |
| Citações recebidas | 63 |
| Referências citadas | 57 |
In this paper, we argue that the current science curricula are failing to educate students to be competent outsiders to science. Historically, science education has rested on two premises. The first is that it is possible for students to acquire sufficient scientific knowledge from K‐12 education to become intellectually independent. That is that science education can produce individuals capable of evaluating scientific evidence and arguments critically for themselves. This belief is what underlies many of the conceptions of scientific literacy and is the basis of the rationale that is used to sustain and justify what is offered in nearly all countries across the globe. The second is the belief that the science that students will encounter will have been filtered such that it can be trusted. Nothing today could be further from the truth. Today, misinformation abounds and much of it purports to be scientific. Very few conceptions of scientific literacy have considered how students can be prepared to evaluate the claims that abound on social media. Current conceptions of “scientific literacy,” we argue, are failing to articulate the competencies and knowledge required in today's changed context. In what follows, we lay out our arguments for why it is time to rethink the conception of scientific literacy by considering what it requires to be a competent outsider to science. Then drawing on our recent report, we lay out what might be done within science education to address the specific phenomenon of misinformation
Context (archaeology) · Curriculum · Epistemology · Globe · Literacy · Misinformation · Nature of Science · Nothing · Pedagogy · Phenomenon · Philosophy of science · Political science · Science education · Science, technology, society and environment education · Scientific Literacy · Scientific misconceptions · Social science · Social science education · Sociology · Sociology of scientific knowledge · Climate Change Communication and Perception · Educational Strategies and Epistemologies · Law · Misinformation and Its Impacts · Philosophy · Psychology
Real possibilities
The science curriculum
Revisiting the Deficit Model
Podem as práticas epistêmicas contribuir para o desenvolvimento de competências metacognitivas
Does Size Matter? Impact of Handling Diagrams Presenting Different Amounts of Data on Students' Arguments in Educational Lab Settings
Preparing students for the modern information landscape and navigating science–technology–society issues
Addressing media and information literacy in engineering design education
Artificial intelligence and the Journal of Research in Science Teaching
“Safety” and “integration”
A Vision for Science Education in Aotearoa New Zealand
Validation of newly developed tasks for the assessment of generic Critical Online Reasoning (COR) of university students and graduates
Integrating perspectives on reasoning about controversial issues
Translating contemporary scientists’ knowledge and practice into classrooms
Evaluation of knowledge in science lessons
SSI-based instruction by secondary school teachers
An Improved Model to Help University Students Understand and Assess Results of Science in the Making
Scientific Thinking and Critical Thinking in Science Education
Estimating Epistemic Practices Loads in Elementary and Middle School Science Curricula
Dialog in the echo chamber
Misinformation Is Contagious
Trusting the social value of diverse scientific enterprises
Ten competencies for the science misinformation crisis
Skating on Thinning Ice
Wie hängen das fachdidaktische Wissen und Selbstwirksamkeitserwartungen von Naturwissenschaftslehrkräften mit ihrem selbst berichteten Unterrichtsangebot zusammen? Zur moderierenden Rolle wahrgenommener schulischer Kontext- und Prozessmerkmale
Foreign language effect and neuromyth discernibility
What can be learned from laypersons’ scientific practices in everyday life
What professional judgements do teachers make in utilising resources on contemporary science
Promoting students’ critical evaluation of popular scientific articles
Critical minds for a warming planet
Third-hand evaluation of science-related information
Dissecting neuromyths in education
New Histories of Science as a Starting Point for a New Science Education
Navigating Post-truth
(Re)considering Nature of Science Education in the Face of Socio-scientific Challenges and Injustices
The Five-Dimensions Model as a Lens on Teaching Socio-Scientific Issues
Exploring Pre-service Teachers’ Reasoning Levels on Pseudoscientific and Scientific Texts
How Scientists Perceive NOS and Its Value for Science Communication
The Fateful Classroom
Entangled in the Chemical Industry
The Role of Materiality in an Era of Generative Artificial Intelligence
Science Education in an Age of Unnatural Disasters
Critically Reading Science-Related Texts Produced by ChatGPT
Science and society in Ireland
Self-efficacy in online credibility evaluation
Outside School ICT Use for Learning and Science Performance
Designing learning environments to promote competent lay engagement with science
Students' credibility criteria for evaluating scientific information
Paradoxical Perceptions
Becoming a science teacher in the Anthropocene
Twenty-Five Years of the Canadian Journal of Science, Mathematics and Technology Education
Alliances for Global Ecojustice In/Through STEM Education
STEM Education With a Focus on Equity and Justice
Developing and evaluating the extended epistemic vigilance framework
When Structure and Content of Socioscientific Argumentation Develop in an Unbalanced Way
The Importance of Science Education, Scientific Knowledge, and Evaluation Strategies for the Successful Detection of Covid‐19 Misinformation
Cutting Through “The Fog of Scrolling
Learning to evaluate sources of science (mis)information on the internet
Students' awareness and conceptions of science‐related communication mechanisms on social media
Justice‐centered STEM education with multilingual learners to address societal challenges
People who have more science education rely less on misinformation—Even if they do not necessarily follow the health recommendations
Conceptual contamination
Epistemic agency, Indigenous knowledge, and the school science curriculum
Science education for growing networks of critique and altruism
Next Generation Science Standards
In Search of Deeper Learning
Science, Truth, and Democracy
Salvaging science literacy
Reconsidering Different Visions of Scientific Literacy and Science Education Based on the Concept of Bildung
Reconceptualizing the Nature of Science for Science Education
Misconceptions, Misinformation, and the Logic of Identity-Protective Cognition
Judging Truth
Epistemic Dependence
SAQ, SSI and STSE education
How literacy in its fundamental sense is central to scientific literacy
Experience and Education
Scientific literacy as collective praxis
Growth rates of modern science
Epistemic and Political Confrontations Around the Public Policies to Fight Covid-19 Pandemic
Learning to evaluate
Confirmation Bias and the Persistence of Misinformation on Climate Change
Finding the place of argumentation in science education
Ten competencies for the science misinformation crisis
Reconceptualizing nature‐of‐science education in the age of social media
The lost moral purpose of science education
Can science literacy help individuals identify misinformation in everyday life
The interplay between students' motivational profiles and science learning
Lateral reading on the open Internet
Communicating the Scientific Consensus on Climate Change
Why We Teach Science (and Why We Should)
The measurement of civic scientific literacy
Lateral Reading and the Nature of Expertise
Greater than 99% consensus on human caused climate change in the peer-reviewed scientific literature
Can Students Evaluate Online Sources? Learning From Assessments of Civic Online Reasoning
The rationality of science, critical thinking, and science education
Experts
Education for a “Post-Truth” World
Students’ Civic Online Reasoning
Educating for Democracy in a Partisan Age
A Behavioral Model of Rational Choice
Heuristic Decision Making
Knowledges in Context
| Obras citantes distintas | 63 |
|---|---|
| Citações por ano | 15,75 |
| Intervalo de citações | 2022 - 2026 (5) |
| Velocidade de citação | current |
| Altamente citado | Não |
| Tipos de citação | Neutras: 54 |