AI-Integrated Concept Map Activity
Objectives
As part of CHMA10’s (Winter 2026) Experiment 2 (Determining Acetic Acid Content in Vinegar), this assignment supports students to understand complex titration procedures through AI-assisted visualization, while also developing critical AI literacy skills. The assignment strategically integrates Microsoft Copilot as a learning tool for organizing procedural knowledge: a task where AI can genuinely enhance comprehension by transforming linear text into spatial concept maps that reveal relationships between experimental steps, rationales, and calculations.
The required 250-300 word critical reflection ensures students do not simply accept AI outputs, but actively evaluate their accuracy, completeness, and pedagogical value. In addition, by documenting all prompts and refinements, students develop metacognitive awareness about their learning process and AI’s role within it.
A key goal of the assignment is to prepare students for professional environments where they must make ethical decisions about AI use. Students learn to recognize AI’s affordances (efficiency, organization) and limitations (inability to replace critical thinking, domain expertise, or creative problem-solving), while maintaining intellectual ownership of their work.
Process
The activity was designed as a structured assignment combining AI-assisted creation with human-led critical evaluation. The steps included:
Step 1: Review Titration Procedure and Assignment Requirements
- Students read Experiment 2 lab manual section on titration procedure
- Review assignment rubric clarifying that concept maps must include: purpose, preparation steps, titration technique, endpoint recognition, and calculation pathways
- Understand that AI may be used ONLY for concept map creation, NOT for the critical reflection
Step 2: Generate Initial Concept Map with Microsoft Copilot
- Students craft initial prompt requesting a concept map for the titration procedure
- Example prompt structure: “Create a concept map for a chemistry lab titration procedure that shows the sequence from preparation through calculation, including the purpose and rationale for each step”
- Document exact prompt wording in a separate document
Step 3: Iterative Refinement Through Prompt Engineering
- Students critically evaluate Copilot’s initial output for accuracy, completeness, and alignment with lab manual
- Identify missing elements (e.g., safety considerations, specific volume measurements, indicator color changes)
- Craft refined prompts addressing gaps: “Add the specific volumes used in this procedure” or “Include the rationale for each rinsing step”
- Document all refinement prompts and note what improved with each iteration
- Continue until concept map accurately represents the complete procedure
Step 4: Write Critical Reflection (250-300 words, No AI Permitted)
- Students independently answer guiding prompts:
- How effectively did Copilot represent the information?
- What challenges arose when writing prompts?
- What were AI’s strengths and limitations for this task?
- Did the output enhance understanding? Why or why not?
- How could the concept map or creation process improve?
- Reflection must demonstrate original thinking about AI’s educational role
Step 5: Compile and Submit
- Create single PDF containing: (1) Final concept map, (2) All documented prompts with annotations about what each aimed to achieve, (3) Critical reflection
- Submit to Quercus link under Experiment 2 module before lab period begins
- Assignment worth 10 points total (5 for concept map quality, 5 for critical reflection depth)
Future-Focused Skill Development
This activity supports future-ready learning by aligning with principles from the University of Calgary’s STRIVE model. For instance, it emphasizes Transparency by explicitly delineating when AI tools can be used (for concept map creation) versus when they are prohibited (during critical reflection writing), while requiring students to document all prompts and refinements to make their AI interaction process completely visible and understandable. It also promotes Responsibility by requiring students to critically evaluate AI outputs for accuracy and completeness, iteratively refine prompts to address gaps, and reflect on AI’s pedagogical strengths and limitations rather than passively accepting generated content, fostering ethical engagement with technology and maintaining intellectual ownership of their learning.
