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Original Articles

Didactical structures as an outcome of research on teaching–learning sequences?

Pages 537-554 | Published online: 22 Feb 2007

Keep up to date with the latest research on this topic with citation updates for this article.

Read on this site (21)

Gjalt T. Prins, Astrid M.W. Bulte & Albert Pilot. (2018) Designing context-based teaching materials by transforming authentic scientific modelling practices in chemistry. International Journal of Science Education 40:10, pages 1108-1135.
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Asay Gidena & Desta Gebeyehu. (2017) The effectiveness of advance organiser model on students’ academic achievement in learning work and energy. International Journal of Science Education 39:16, pages 2226-2242.
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M.H.J. Ummels, M.J.A. Kamp, H. de Kroon & K.Th. Boersma. (2015) Designing and Evaluating a Context-based Lesson Sequence Promoting Conceptual Coherence in Biology. Journal of Biological Education 49:1, pages 38-52.
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Marianne Foss Achiam. (2013) A Content-oriented Model for Science Exhibit Engineering. International Journal of Science Education, Part B 3:3, pages 214-232.
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Jenaro Guisasola, Jose M. Almudi & Kristina Zuza. (2013) University Students’ Understanding of Electromagnetic Induction. International Journal of Science Education 35:16, pages 2692-2717.
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Eva West & Anita Wallin. (2013) Students' Learning of a Generalized Theory of Sound Transmission from a Teaching–Learning Sequence about Sound, Hearing and Health. International Journal of Science Education 35:6, pages 980-1011.
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Richard Duschl, Seungho Maeng & Asli Sezen. (2011) Learning progressions and teaching sequences: a review and analysis. Studies in Science Education 47:2, pages 123-182.
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Jörg Zabel & Harald Gropengiesser. (2011) Learning progress in evolution theory: climbing a ladder or roaming a landscape?. Journal of Biological Education 45:3, pages 143-149.
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Jerneja Pavlin, Katarina Susman, Saša Ziherl, Nataša Vaupotič & Mojca Čepič. (2011) How to Teach Liquid Crystals?. Molecular Crystals and Liquid Crystals 547:1, pages 255/[1945]-261/[1951].
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Adri Dierdorp, Arthur Bakker, Harrie Eijkelhof & Jan van Maanen. (2011) Authentic Practices as Contexts for Learning to Draw Inferences Beyond Correlated Data. Mathematical Thinking and Learning 13:1-2, pages 132-151.
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Ugo Besson, Lidia Borghi, Anna De Ambrosis & Paolo Mascheretti. (2010) A Three‐Dimensional Approach and Open Source Structure for the Design and Experimentation of Teaching‐Learning Sequences: The case of friction. International Journal of Science Education 32:10, pages 1289-1313.
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Ana María Criado & Antonio García‐Carmona. (2010) Prospective Teachers’ Difficulties in Interpreting Elementary Phenomena of Electrostatic Interactions: Indicators of the status of their intuitive ideas. International Journal of Science Education 32:6, pages 769-805.
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Peter Michael Loxley. (2009) Evaluation of Three Primary Teachers’ Approaches to Teaching Scientific Concepts in Persuasive Ways. International Journal of Science Education 31:12, pages 1607-1629.
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Fred J. J. M. Janssen, Dineke E. H. Tigelaar & Nico Verloop. (2009) Developing Biology Lessons Aimed at Teaching for Understanding: A Domain-specific Heuristic for Student Teachers. Journal of Science Teacher Education 20:1, pages 1-20.
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RoaldP. Verhoeff, Arend Jan Waarlo & Kerst Th. Boersma. (2008) Systems Modelling and the Development of Coherent Understanding of Cell Biology. International Journal of Science Education 30:4, pages 543-568.
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AstridM. W. Bulte, HannaB. Westbroek, Onno de Jong & Albert Pilot. (2006) A Research Approach to Designing Chemistry Education using Authentic Practices as Contexts. International Journal of Science Education 28:9, pages 1063-1086.
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Björn Andersson & Anita Wallin. (2006) On Developing Content‐oriented Theories Taking Biological Evolution as an Example. International Journal of Science Education 28:6, pages 673-695.
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Magdalena Valverde Pérez, Patricia Esteve-Guirao & Isabel Banos-González. (2022) How Do Prospective Teachers Address Pupils’ Ideas during School Practices?. Education Sciences 12:11, pages 783.
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P S W M Logman & J Kautz. (2021) From Dublin descriptors to implementation in Bachelor labs. Journal of Physics: Conference Series 1929:1, pages 012065.
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Guilhermina Maria Lobato Ferreira de Miranda, Manuel Joaquim Henriques Rafael, Mário Marcelino Luis de Melo, Joana Martinho de Almeida Costa Pardal & Thiago Bessa Pontes. 2021. 4C-ID Model and Cognitive Approaches to Instructional Design and Technology. 4C-ID Model and Cognitive Approaches to Instructional Design and Technology 94 111 .
Jenaro Guisasola, Kristina Zuza & Ane Leniz. 2021. Fundamental Physics and Physics Education Research. Fundamental Physics and Physics Education Research 163 174 .
Ria Dolfing, Gjalt T. Prins, Astrid M. W. Bulte, Albert Pilot & Jan D. Vermunt. (2020) Strategies to support teachers' professional development regarding sense‐making in context‐based science curricula. Science Education 105:1, pages 127-165.
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Kristina Zuza, Paulo Sarriugarte, Jaume Ametller, Paula R. L. Heron & Jenaro Guisasola. (2020) Towards a research program in designing and evaluating teaching materials: An example from dc resistive circuits in introductory physics. Physical Review Physics Education Research 16:2.
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Georgios Ampatzidis & Marida Ergazaki. (2018) Challenging Students’ Belief in the ‘Balance of Nature’ Idea. Science & Education 27:9-10, pages 895-919.
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Eliza Rybska. 2018. Professional Development for Inquiry-Based Science Teaching and Learning. Professional Development for Inquiry-Based Science Teaching and Learning 43 63 .
Valentin Maron & Philippe Colin. (2017) Une reconstruction de la théorie de la gravitation newtonienne : proposition d’une approche d’enseignement inspirée de l’histoire des idéesA Reconstruction of the Newtonian Theory of Gravitation: Proposition of a Teaching Approach Inspired by History of Ideas. RDST:16, pages 93-128.
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Georgios Ampatzidis & Marida Ergazaki. (2017) Toward an “Anti-Balance of Nature” Learning Environment for Non-Biology Major Students: Learning Objectives and Design Criteria. Natural Sciences Education 46:1, pages 170016.
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Jenaro Guisasola, Kristina Zuza, Jaume Ametller & José Gutierrez-Berraondo. (2017) Evaluating and redesigning teaching learning sequences at the introductory physics level. Physical Review Physics Education Research 13:2.
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Paulo Maurício, Bianor Valente & Isabel Chagas. (2016) A Teaching-Learning Sequence of Colour Informed by History and Philosophy of Science. International Journal of Science and Mathematics Education 15:7, pages 1177-1194.
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Paulo Maurício, Bianor Valente & Isabel Chagas. (2015) A Didactic Sequence of Elementary Geometric Optics Informed by History and Philosophy of Science. International Journal of Science and Mathematics Education 15:3, pages 527-543.
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Cibelle Celestino Silva & Pedro Donizete Colombo. 2017. Crossing the Border of the Traditional Science Curriculum. Crossing the Border of the Traditional Science Curriculum 127 141 .
Fabiana B. Kneubil & Maurício Pietrocola. 2017. Crossing the Border of the Traditional Science Curriculum. Crossing the Border of the Traditional Science Curriculum 61 72 .
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GJALT T. PRINS, ASTRID M. W. BULTE & ALBERT PILOT. (2016) An Activity-Based Instructional Framework for Transforming Authentic Modeling Practices into Meaningful Contexts for Learning in Science Education. Science Education 100:6, pages 1092-1123.
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MARC H. W. MIL, PAULIEN A. POSTMA, DIRK JAN BOERWINKEL, KEES KLAASSEN & AREND JAN WAARLO. (2016) Molecular Mechanistic Reasoning: Toward Bridging the Gap Between the Molecular and Cellular Levels in Life Science Education. Science Education 100:3, pages 517-585.
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Anastasios Zoupidis, Anna Spyrtou, Georgios Malandrakis & Petros Kariotoglou. 2016. Iterative Design of Teaching-Learning Sequences. Iterative Design of Teaching-Learning Sequences 167 199 .
María I. Hernández & Roser Pintó. 2016. Iterative Design of Teaching-Learning Sequences. Iterative Design of Teaching-Learning Sequences 129 166 .
MICHA H. J. UMMELS, MARCEL J. A. KAMP, HANS DE KROON & KERST TH. BOERSMA. (2015) Promoting Conceptual Coherence Within Context-Based Biology Education. Science Education 99:5, pages 958-985.
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Fabiana Botelho Kneubil, Marcus Vinicius Russo Loures & William Amado. (2015) An apparatus for constructing an electromagnetic plane wave model. Physics Education 50:4, pages 416-423.
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Cristian Merino, Sonia Pino, Eduardo Meyer, José Miguel Garrido & Felipe Gallardo. (2015) Realidad aumentada para el diseño de secuencias de enseñanza-aprendizaje en química. Educación Química 26:2, pages 94-99.
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Hannah Sevian & Astrid M. W. Bulte. 2015. Relevant Chemistry Education. Relevant Chemistry Education 55 78 .
Arthur Bakker & Dolly van Eerde. 2015. Approaches to Qualitative Research in Mathematics Education. Approaches to Qualitative Research in Mathematics Education 429 466 .
Fred J. J. M. Janssen, Hanna B. Westbroek & Jan H. van Driel. (2013) How to make guided discovery learning practical for student teachers. Instructional Science 42:1, pages 67-90.
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Jenaro Guisasola. 2014. International Handbook of Research in History, Philosophy and Science Teaching. International Handbook of Research in History, Philosophy and Science Teaching 129 156 .
Andrés Acher & María Arcà. 2014. Topics and Trends in Current Science Education. Topics and Trends in Current Science Education 489 503 .
Hilde J. Boer, Gjalt T. Prins, Martin J. Goedhart & Kerst Th. Boersma. 2014. Topics and Trends in Current Science Education. Topics and Trends in Current Science Education 385 402 .
Jenaro Guisasola. 2014. Frontiers of Fundamental Physics and Physics Education Research. Frontiers of Fundamental Physics and Physics Education Research 397 406 .
CHRISTINA SIRY & CHARLES MAX. (2013) The Collective Construction of a Science Unit: Framing Curricula as Emergent From Kindergarteners’ Wonderings. Science Education 97:6, pages 878-902.
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Mercè Izquierdo-Aymerich. (2012) School Chemistry: An Historical and Philosophical Approach. Science & Education 22:7, pages 1633-1653.
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Ruth N. Schwartz, Catherine Milne, Bruce D. Homer & Jan L. Plass. 2013. Pedagogic Roles of Animations and Simulations in Chemistry Courses. Pedagogic Roles of Animations and Simulations in Chemistry Courses 43 76 .
Elder Sales Teixeira, Ileana Maria Greca & Olival FreireJrJr. (2009) The History and Philosophy of Science in Physics Teaching: A Research Synthesis of Didactic Interventions. Science & Education 21:6, pages 771-796.
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Ria Dolfing, Astrid M. W. Bulte, Albert Pilot & Jan D. Vermunt. (2011) Domain-Specific Expertise of Chemistry Teachers on Context-Based Education About Macro–Micro Thinking in Structure–Property Relations. Research in Science Education 42:3, pages 567-588.
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Jenaro Guisasola, José M. Almudí & Kristina Zuza. (2010) Dificultades de los estudiantes universitarios en el aprendizaje de la inducción electromagnética. Revista Brasileira de Ensino de Física 32:1, pages 1401-1409.
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Gjalt T. Prins, Astrid M. W. Bulte, Jan H. Van Driel & Albert Pilot. (2008) Students’ Involvement in Authentic Modelling Practices as Contexts in Chemistry Education. Research in Science Education 39:5, pages 681-700.
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Jenaro Guisasola, Jose Manuel Almudi, Mikel Ceberio & Jose Luis Zubimendi. (2008) DESIGNING AND EVALUATING RESEARCH-BASED INSTRUCTIONAL SEQUENCES FOR INTRODUCING MAGNETIC FIELDS. International Journal of Science and Mathematics Education 7:4, pages 699-722.
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Marijn R. Meijer, Astrid M. W. Bulte & Albert Pilot. 2009. Multiple Representations in Chemical Education. Multiple Representations in Chemical Education 195 213 .
Kees Klaassen, Axel Westra, Katrina Emmett, Harrie Eijkelhof & Piet Lijnse. (2008) Introducing mechanics by tapping core causal knowledge. Physics Education 43:4, pages 433-439.
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René Westra, Kerst Boersma, Arend J. Waarlo & Elwin Savelsbergh. 2007. Contributions from Science Education Research. Contributions from Science Education Research 361 374 .
L Borghi, A De Ambrosis, N Lamberti & P Mascheretti. (2005) A teaching–learning sequence on free fall motion. Physics Education 40:3, pages 266-273.
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Tinri Aegerter-Wilmsen, Fred Janssen, Rob Hartog & Ton Bisseling. (2005) Digital Learning Material for Model Building in Molecular Biology. Journal of Science Education and Technology 14:1, pages 123-134.
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Piet Lijnse. 2005. Research and the Quality of Science Education. Research and the Quality of Science Education 15 26 .

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