All Stories

  1. Conceptual profile of chemistry: a framework for enriching thinking and action in chemistry education
  2. Using a mechanistic framework to characterise chemistry students' reasoning in written explanations
  3. Eco-reflexive chemical thinking and action
  4. Importance of Understanding Fundamental Chemical Mechanisms
  5. Chemical rationales: another triplet for chemical thinking
  6. Progressions in reasoning about structure–property relationships
  7. Making Sense of Phenomena from Sequential Images versus Illustrated Text
  8. Reforming a Large Foundational Course: Successes and Challenges
  9. Concept Inventories: Predicting the Wrong Answer May Boost Performance
  10. Central Ideas in Chemistry: An Alternative Perspective
  11. Students’ Ideas about How and Why Chemical Reactions Happen: Mapping the conceptual landscape
  12. Interpreting Data: The Hybrid Mind
  13. Uncovering Chemical Thinking in Students’ Decision Making: A Fuel-Choice Scenario
  14. La importancia de la evaluación formativa
  15. Exploring prospective teachers' assessment practices: Noticing and interpreting student understanding in the assessment of written work
  16. Threshold Concepts in Chemistry: The Critical Role of Implicit Schemas
  17. Reasoning about benefits, costs, and risks of chemical substances: mapping different levels of sophistication
  18. Mapping students' conceptual modes when thinking about chemical reactions used to make a desired product
  19. Collaborative Professional Development in Chemistry Education Research: Bridging the Gap between Research and Practice
  20. Chemistry Education: Ten Heuristics To Tame
  21. Humanizing Chemistry Education: From Simple Contextualization to Multifaceted Problematization
  22. DBER and STEM education reform: Are we up to the challenge?
  23. What is this Substance? What Makes it Different? Mapping Progression in Students’ Assumptions about Chemical Identity
  24. Razonamiento Pedagógico Específico sobre el Contenido (RPEC)
  25. Chemistry in Past and New Science Frameworks and Standards: Gains, Losses, and Missed Opportunities
  26. Rethinking chemistry: a learning progression on chemical thinking
  27. Using Qualitative Analysis Software To Facilitate Qualitative Data Analysis
  28. When Atoms Want
  29. Progresiones de aprendizaje: promesa y potencial
  30. Development of Understanding in Chemistry
  31. Effect of Different Types of Small-Group Activities on Students’ Conversations
  32. Chemistry Education: Ten Facets To Shape Us
  33. Making predictions about chemical reactivity: Assumptions and heuristics
  34. Effect of the Level of Inquiry on Student Interactions in Chemistry Laboratories
  35. Effect of the Level of Inquiry of Lab Experiments on General Chemistry Students’ Written Reflections
  36. Assessing students' understanding of inquiry: What do prospective science teachers notice?
  37. How Do Students Reason About Chemical Substances and Reactions?
  38. Chemistry Education: Ten Dichotomies We Live By
  39. Content-Related Interactions in Self-initiated Study Groups
  40. Modes of reasoning in self-initiated study groups in chemistry
  41. School Chemistry: The Need for Transgression
  42. College chemistry students' mental models of acids and acid strength
  43. Heuristic Reasoning in Chemistry: Making decisions about acid strength
  44. The role of intuitive heuristics in students' thinking: Ranking chemical substances
  45. Macro, Submicro, and Symbolic: The many faces of the chemistry “triplet”
  46. Let’s teach how we think instead of what we know
  47. Classifying End-of-Chapter Questions and Problems for Selected General Chemistry Textbooks Used in the United States
  48. Exploring Dominant Types of Explanations Built by General Chemistry Students
  49. On Cognitive Constraints and Learning Progressions: The case of “structure of matter”
  50. Factors Influencing Entering Teacher Candidates’ Preferences for Instructional Activities: A glimpse into their orientations towards teaching
  51. What do science teachers consider when selecting formative assessment tasks?
  52. Classification of chemical reactions: Stages of expertise
  53. Students' predictions about the sensory properties of chemical compounds: Additive versus emergent frameworks
  54. Filling and emptying transitions in cylindrical channels: A density functional approach
  55. Revealing Student Teachers’ Thinking through Dilemma Analysis
  56. Explanations and Teleology in Chemistry Education
  57. Classification of Chemical Substances using Particulate Representations of Matter: An analysis of student thinking
  58. A2: Element or Compound?
  59. Classification of Chemical Substances using Particulate Representations of Matter: An analysis of student thinking
  60. Nucleation of Self-Associating Fluids:  Free versus Activated Association
  61. Solvent density inhomogeneities and solvation free energies in supercritical diatomic fluids: A density functional approach
  62. Phase transitions in DNA-linked nanoparticle assemblies: A decorated-lattice model
  63. Commonsense Chemistry: A Model for Understanding Students' Alternative Conceptions
  64. Reclaiming the Central Role of Equations of State in Thermodynamics
  65. Nucleation on cylindrical plates: Sharp transitions and double barriers
  66. Phase behavior of self-associating fluids with weaker dispersion interactions between bonded particles
  67. Nucleation in a simple model for protein solutions with anisotropic interactions
  68. Statistical mechanics of fluid interfaces
  69. Nucleation in cylindrical capillaries
  70. Formation of droplets on nonvolatile soluble particles
  71. A Stronger Role for Science Departments in the Preparation of Future Chemistry Teachers
  72. Responding to the Call for Change: The New College of Science Teacher Preparation Program at the University of Arizona
  73. Nucleation of pores in amphiphile bilayers
  74. Nucleation in Gas-Liquid Transitions
  75. Bubble nucleation in binary mixtures: A semiempirical approach
  76. Nucleation in a slit pore
  77. Heterogeneous nucleation on aerosol particles
  78. A density-functional approach to nucleation in micellar solutions
  79. Gas–liquid nucleation in associating fluids
  80. A density functional study of liquid–liquid interfaces in partially miscible systems
  81. A simple off-lattice model for microemulsions
  82. Crystal nucleation in the presence of a metastable critical point
  83. A new phenomenological approach to gas–liquid nucleation based on the scaling properties of the critical nucleus
  84. Nucleation in the presence of an amphiphile: A density functional approach
  85. Critical clusters in binary mixtures: A density functional approach
  86. Nucleation on a solid substrate: A density functional approach
  87. Density functional theory for binary nucleation
  88. Wetting Transition at the Liquid−Air Interface of Methanol−Alkane Mixtures
  89. Nucleation: Measurements, Theory, and Atmospheric Applications
  90. Heterogeneous nucleation of molecular and dipolar fluids
  91. Nucleation in molecular and dipolar fluids: Interaction site model
  92. Density functional theory of nucleation: A semiempirical approach
  93. Density Functional Analysis of Phenomenological Theories of Gas-Liquid Nucleation
  94. Nucleation of bubbles in binary fluids
  95. Wetting properties of simple binary mixtures and systems with one self‐associating component
  96. Dynamical density functional theory of gas–liquid nucleation
  97. Nucleation in dipolar fluids: Stockmayer fluids
  98. Fractals: To known, to do, to simulate
  99. Global phase diagram for reacting systems
  100. Curvature interfacial transitions in amphiphile monolayers and their possible relation to the onset of micelle formation
  101. Sublattice-ordered phases of Griffiths’s three-component model
  102. Global phase diagram for binary alloys with one magnetic component
  103. Sublattice-ordered phases in a lattice model for a micellar solution