All Stories

  1. WHAT AND WHO INSPIRED ME TO BECOME A SCIENTIST AND FURTHER A SCIENCE EDUCATOR?
  2. Undergraduate Chemistry Students’ Perceived Abilities and Declarative Knowledge on Some Basic Aspects and Concepts of Spectroscopy
  3. Chemistry students’ conceptual difficulties and problem solving behavior in chemical kinetics, as a component of an introductory physical chemistry course
  4. Electrostatic quantum mechanical potential maps as visual representations of chemical bonding
  5. Problem categorization using concept mapping – chemical equilibrium problems
  6. Collective book on teaching and learning problem solving in chemistry. Editor: Georgios Tsaparlis
  7. Chapter 18. Postscript – Two Issues for Provocative Thought: (a) The Potential Synergy Between HOTS and LOTS (b) When Problem Solving Might Descend to Chaos Dynamics
  8. Chapter 17. Issues, Problems and Solutions: Summing It All Up
  9. Chapter 1. Introduction − The Many Types and Kinds of Chemistry Problems
  10. Chapter 5. It Depends on the Problem and on the Solver: An Overview of the Working Memory Overload Hypothesis, Its Applicability and Its Limitations
  11. HIGHER AND LOWER-ORDER THINKING SKILLS: THE CASE OF CHEMISTRY REVISITED
  12. Affective and Cognitive Outcomes of Project-Based Team Work in a Model Lower Secondary School: The Case of Nuclear Energy
  13. Proposed pedagogies for teaching and learning chemical bonding in secondary education
  14. ORGANIZING AND ATTENDING INTERNATIONAL CONFERENCES
  15. Teaching and Learning Electrochemistry: A review of education research
  16. Supplementary files (standard and enriched text) DOI: C8RP00035b1, C8RP00035b2, C8RP00035b3.
  17. Georgios Tsaparlis' selective contributions to Greek and international chemistry education
  18. Controlling the variables relating to chemistry teaching and the training of chemistry teachers
  19. The logical and psychological structure of physical chemistry and its relevance to graduate students' opinions about the difficulties of the major areas of the subject
  20. Concepts, theoretical constructs, models, theories and the varied and rich practice of “Relevant chemistry education”
  21. The logical and psychological structure of physical chemistry and its relevance to the organization/sequencing of the major areas covered in physical chemistry textbooks
  22. Physical chemistry education: its multiple facets and aspects
  23. Cognitive Demand
  24. Linking the Macro with the Submicro Levels of Chemistry: Demonstrations and Experiments that can Contribute to Active/Meaningful/Conceptual Learning
  25. Students’ Knowledge of Nuclear Science and Its Connection with Civic Scientific Literacy in Two European Contexts: The Case of Newspaper Articles
  26. Concepts of Matter in Science Education
  27. Using computer simulations in chemistry problem solving
  28. Toward a Scientifically Sound Understanding of Concepts of Matter
  29. Learning and Teaching the Basic Quantum Chemical Concepts
  30. Introduction: Concepts of Matter – Complex to Teach and Difficult to Learn
  31. Student Conceptions of Ionic Bonding: Patterns of thinking across three European contexts
  32. Applying catastrophe theory to an information‐processing model of problem solving in science education
  33. Evaluation of questions in general chemistry textbooks according to the form of the questions and the Question-Answer Relationship (QAR): the case of intra- and intermolecular chemical bonding
  34. Lower-secondary introductory chemistry course: a novel approach based on science-education theories, with emphasis on the macroscopic approach, and the delayed meaningful teaching of the concepts of molecule and atom
  35. High‐school Students' Conceptual Difficulties and Attempts at Conceptual Change: The case of basic quantum chemical concepts
  36. Students' levels of explanations, models, and misconceptions in basic quantum chemistry: A phenomenographic study
  37. Learning at the Macro Level: The Role of Practical Work
  38. Conceptual versus algorithmic learning in high school chemistry: the case of basic quantum chemical concepts. Part 1. Statistical analysis of a quantitative study
  39. Conceptual versus algorithmic learning in high school chemistry: the case of basic quantum chemical concepts. Part 2. Students’ common errors, misconceptions and difficulties in understanding
  40. Teaching and Learning Physical Chemistry: A Review of Educational Research
  41. Addition of a Project-Based Component to a Conventional Expository Physical Chemistry Laboratory
  42. A study of group interaction processes in learning lower secondary physics
  43. Explicit teaching of problem categorisation and a preliminary study of its effect on student performance – the case of problems in colligative properties of ideal solutions
  44. Non‐algorithmic quantitative problem solving in university physical chemistry: a correlation study of the role of selective cognitive factors
  45. Cognitive Variables in Problem Solving: A Nonlinear Approach
  46. Instructional Misconceptions in Acid-Base Equilibria: An Analysis from a History and Philosophy of Science Perspective
  47. Conceptual understanding versus algorithmic problem solving: Further evidence from a national chemistry examination
  48. A modification of a conventional expository physical chemistry laboratory to accommodate an inquiry/project‐based component: Method and students' evaluation
  49. ANALOGIES IN CHEMISTRY TEACHING AS A MEANS OF ATTAINMENT OF COGNITIVE AND AFFECTIVE OBJECTIVES: A LONGITUDINAL STUDY IN A NATURALISTIC SETTING, USING ANALOGIES WITH A STRONG SOCIAL CONTENT
  50. Constructivism: Defense or a Continual Critical Appraisal A Response to Gil-Pérez et al.
  51. CHEMICAL PHENOMENA VERSUS CHEMICAL REACTIONS: DO STUDENTS MAKE THE CONNECTION?
  52. A STUDY OF THE EFFECT OF A PRACTICAL ACTIVITY ON PROBLEM SOLVING IN CHEMISTRY
  53. Nonlinear Analysis of the Effect of Working Memory Capacity on Student Performance in Problem Solving
  54. A Complexity Theory Model in Science Education Problem Solving: Random Walks for Working Memory and Mental Capacity
  55. Achievement in Chemistry Problem-Solving as a Function of the Mobility-Fixity Dimension
  56. QUANTUM-CHEMICAL CONCEPTS: ARE THEY SUITABLE FOR SECONDARY STUDENTS?
  57. STUDENTS’ ERRORS IN SOLVING NUMERICAL CHEMICAL-EQUILIBRIUM PROBLEMS
  58. TOWARDS A MEANINGFUL INTRODUCTION TO THE SCHRÖDINGER EQUATION THROUGH HISTORICAL AND HEURISTIC APPROACHES
  59. PHYSICAL-SCIENCE KNOWLEDGE AND PATTERNS OF ACHIEVEMENT AT THE PRIMARY-SECONDARY INTERFACE PART 1. GENERAL STUDENT POPULATION
  60. PHYSICAL-SCIENCE KNOWLEDGE AND PATTERNS OF ACHIEVEMENT AT THE PRIMARY-SECONDARY INTERFACE PART 2. ABLE AND TOP-ACHIEVING STUDENTS
  61. A model of problem solving: Its operation, validity, and usefulness in the case of organic-synthesis problems
  62. A model of problem solving: Its operation, validity, and usefulness in the case of organic-synthesis problems
  63. THE STATES-OF-MATTER APPROACH (SOMA) TO INTRODUCTORY CHEMISTRY
  64. TEACHING LOWER-SECONDARY CHEMISTRY WITH A PIAGETIAN CONSTRUCTIVIST AND AN AUSBELIAN MEANINGFUL-RECEPTIVE METHOD: A LONGITUDINAL COMPARISON
  65. AN INTEGRATED PHYSICAL-SCIENCE (PHYSICS AND CHEMISTRY) INTRODUCTION FOR LOWER-SECONDARY LEVEL (GRADE 7)
  66. CHEMISTRY TEACHING IN LOWER SECONDARY SCHOOL WITH METHODS BASED ON: A) PSYCHOLOGICAL THEORIES; B) THE MACRO, REPRESENTATIONAL, AND SUBMICRO LEVELS OF CHEMISTRY
  67. NON-LINEAR ANALYSIS OF THE EFFECT OF WORKING-MEMORY CAPACITY ON ORGANIC-SYNTHESIS PROBLEM SOLVING
  68. Application of Complexity Theory to an Information Processing Model in Science Education
  69. Students' Self-Assessment in Chemistry Examinations Requiring Higher- and Lower-Order Cognitive Skills
  70. Molecular-equilibrium problems: Manipulation of logical structure and of M-demand, and their effect on student performance
  71. Dimensional analysis and predictive models in problem solving
  72. Atomic and Molecular Structure in Chemical Education: A Critical Analysis from Various Perspectives of Science Education
  73. Atomic orbitals, molecular orbitals and related concepts: Conceptual difficulties among chemistry students
  74. Higher and lower-order cognitive skills: The case of chemistry
  75. The chemical bond as an atomic tug-of-war
  76. Exchange interaction in oxygen-bridged dimers of copper(II) with aromatic N-oxides