The environments of educational robotics in Early Childhood Education: towards a didactical analysis

• Κύριοι συγγραφείς: KOMIS, VASSILIS, MISIRLI, ANASTASIA
• Μορφή: Online
• Γλώσσα: English
• Έκδοση: Urray 2016
• Θέματα: Integrated teaching, decompartmentalization of academic disciplines, science and technology; University Pedagogy, Flipped Classroom, e-learning; Problem solving, teaching, learning, knowledge, declaratory, procedural; Scientific literacy, attitudes towards science, epistemic beliefs, PISA; Preschool mathematics education, argumentation, Toulmin, sociomathematical norms; Educational robotics, visual programming, didactical analysis, early childhood education, computational thinking; Classical Mechanics principles, Quantum Mechanics basic principles, wave in Quantum Mechanics. Copenhagen interpretation, Everett III interpretation; Science textbook, physics textbook, textbook analysis, scientific practices, crosscutting concepts; Intercultural competence, refugee identity, university course, candidate teachers, experiential learning; Biological evolution, randomness, pupils’ conceptions, discussion with philosophic aim; History, resonance, vibration, waves, cord; Force, difficulties, assimilation modeling activities, conceptions; Geometrical thinking, angle, rotation, simulation, Scratch; Serious games, education to sustainable development, experiential learning; Instrumented activity, instrumental approach, technical object, artifact, teaching-learning; Variation-with-populations, population thinking, preschool, interview protocol; Reasoning, semiotic modes, multimodal approach, physics teaching; Preschoolers and categories, preschoolers and categorization criteria, preschoolers and category-based reasoning; Sciences and technology, health education, particular teaching; Promoting health, nutritional education, phytotherapy, Tunisian textbook; Learning, possibilities, Piaget, constructivism, Bateson; Early Childhood Education for Sustainabilit, early biology education, ‘possible futures’-approach, design research; Role, school principal, Greece, NPM, autonomy; Comprehension, bricolage, learning, constructivism; Technical teaching, reform, Electric Engineering, French language, scientific subjects, difficulties; Vocational teaching, co-design, co-teaching, educational design research; Six Thinking Hats, decision-making, educational decisions, career guidance; Inquiry, simulation, TACD, PCDR, mechanical wave; Middle school, science learning, soil, geoscience; Attrition, Science Teacher Education, Open and Distance Education, Pre-service Teachers; Conceptions, socio-constructivism, learning, breathing; Learning, digital technology, complexity, ICT, interdisciplinarity, didactic approach; Emotional and behavioural difficulties, social and emotional learning, teacher-student relationships; Autonomy, physics and chemistry, teachers, middle school; Inquiry based science teaching, activity theory, professional didactics, teaching practice, intensity resonance, didactic contract; Motivation, scientific career, school-university partnership, professional identity; Roma, Greece, integration, exclusion, mediation, narrative; Vocational activities, descriptions, differences between teachers and practitioners, implications on education; Stability of teaching practices, Activity Theory, semiotic resources, video analysis; Evaluation, modelisation, modeling tools, mechanical design; Situational Pedagogy, skills in professional communication, professional didactics; Early science teaching, children’s ideas, change of state, storytelling, drawing; Educational content, blackboard, morpho-dynamics, non temporalization of displacements in the gridlines; Adult secondary education, teaching of mathematics, utility; PISA, press, globalisation, education policy, social imaginary; Student dropout, Greece, qualitative research, interview quality, stance of universalism; Hydraulics bench, energy conceptions, model-based learning, primary education; Lifelong learning, perceptions, students; Cognitive ergonomics, space ergonomics, computer laboratory; Breathing, socioconstructivism, curriculum, curriculum didactics; Block diagram, regulation, servo control, technical system; Activity, artifact, instrument, instrumentalisation, integrated linear amplifier; Désenchantement, enchantement, éducation, interaction; Science teacher, teacher training, Science Education, pedagogical content knowledge, didactic transposition; Training of teachers, training program, professionalization, universitarisation; Virtual, life, inert, video games, conceptions; Students, tutoring, learning, university, forum, social networks; Domestic violence, women, students, academic performance, primary school, teachers; Attitude, ICTs, training device, teachers training.; Didactic of sciences, Task-activity, semiotic registers, energetic chain, primary school; Didactical communication, teacher, student; Argumentation, personal epistemology, learning, socio-scientific issues, digital; Capacity, volume, didactic and ergonomic approach of practices, sciences education, teaching and learning; Teaching physics, the joint action theory in didactics, contract, mechanical signal; Fractions, concrete-representational-abstract approach, conceptual knowledge, low-achieving students, CRA effectiveness, instruction efficiency; Proposals research, teaching didactics, impact, professional practice, exploded schema; PISA, Science, test items, school-based examinations, textbooks, visual representations, functional role, type; Educational robotics, teachers training, computational thinking, self-efficacy; PISA, resilient students, Economic Social and Cultural Status, Finland, Portugal, Croatia; Learning, education, entrepreneurship, Serious Games; 3D printing technology, Activity Theory, modeling’s approach of Additive Manufacturing, fablabs; Problem solving, verbal communication, cumulative talk, exploratory talk, investigative talk; Cognitive development, Learning Disabilities, collaborative learning activities, Information and Communication Technologies (ICT’s); Systems Inquiry, systemic methodology, adult education, dropout; Praxeology, intelligibility, traceability of objects of knowledge, movement on the grid; Content and Language Integrated Learning, English, physics, didactics, upper secondary school, higher learning; Secondary school students, attitudes, drugs; Model, perception, abstraction, physics, Al-hiss al-mushtarak, Al-wahm, imagination; Hypothesis writing, debate, inquiry, activity, speaking time; Early childhood education, minerals, non-formal education, educational intervention; Research and Study Courses (RSC), algebraic functions, secondary school; Children’s representations, preschool education, clouds, early childhood science education; Early science teaching, children’s ideas, elicitation, teachers’ beliefs and practices; Device, distance, contractual teachers, teacher training education; Emerging adulthood, Greece, distinctive characteristics, economic crisis; Literacy in Science, knowledge-based approach, abilities, daily life; Biological education, educational role of museums, zoological museum, environmental awareness, urban birds; Teacher education, game-based learning, digital games-based learning; Video, teachers-student, teacher training, reflection; Cognitive errors, dysfunctional assumptions, cognitive psychotherapy, transformative learning; Refutational text, natural number bias, multiplication makes bigger, misconceptions, rational numbers; Instrumental genesis, Cabri-Geometry II, comparison, secondary school; Physical magnitudes, symbolization, conventionality distended, teaching sequence, constructivism; Cooperative learning, jigsaw technical, skills development, teaching/learning; Physical Science teacher, teacher training, pedagogical content knowledge, didactic transposition; Pedagogical alignment, assessment, formative evaluation, educational objectives; School career, students, General High School, Vocational High School

This article consist an analysis of educational robotics environments for early childhood and first primary education. Firstly generally presented a problematic for the role of these environments in educational contexts for young children and examined the main research in the area. Then it is developed a framework of didactical analysis of two main categories of educational robotics environments: a) building competencies when constructing and robots and b) constructing computational thinking. Finally, based on this framework the most known educational robotics environments are analysed.