AI-Assisted Project Development
Developing Semester-Long Projects with AI
A Backwards Design Approach
For Expert Educators: Leveraging AI While Maintaining Pedagogical Control
The Traditional Project Problem
📅 Typical Timeline
- Week 4: Project assigned
- Week 5-13: radio silence
- Week 14: Everything due
- Finals week: Panic grading
😰 Predictable Results
- Student procrastination
- No feedback loop
- All-nighters before deadline
- Underwhelming submissions
We know better. Why do we keep doing this?
Why Semester-Long Projects Matter
Pedagogical benefits that homework can't provide:
- Integration — Apply multiple concepts together, not in isolation
- Authenticity — Mimic real-world progressive development
- Motivation — Watch substantial work grow over time
- Portfolio Value — Meaningful showcase for students
- Depth — Go beyond surface-level understanding
The Challenge: Keeping students on track without end-of-semester panic
The Core Principle
Each milestone should be achievable using
skills students have just learned in lectures
Week 4: Milestone 1 (uses Weeks 1-3 concepts)
Week 7: Milestone 2 (adds Weeks 4-6 concepts)
Week 10: Milestone 3 (adds Weeks 7-9 concepts)
Week 13: Final delivery (adds Weeks 10-12 concepts)
Backwards Design: The AI-Assisted Process
Traditional Backwards Design
- Define learning objectives
- Design assessment
- Create scaffolding
Key Innovation: Staged Artifact Development
Stage 1: Generate concepts
Stage 2: Identify milestones
Stage 3: Expand requirements
Stage 4: Create rubrics
Stage 5: Generate support
Stage 6: Test-solve yourself
Critical: Don't generate everything at once. Build incrementally with review checkpoints.
Stage 1: Generate Project Concepts
Working in a Course Repository
Key advantage: AI reads your actual course files
Prompt: "Examine course structure. Generate 3-4
semester-long project concepts that integrate these
learning objectives throughout the term. Keep brief:
2-3 paragraphs per concept."
Your job: Select the most pedagogically sound concept
- Student engagement
- Real-world relevance
- Portfolio value
- Skill integration
- Feasibility
Stage 2: Identify Natural Milestones
Prompt: "I've chosen the [concept] project. Examine
course structure. Identify 4-5 natural milestone points.
For each:
- Suggested due week (AFTER required skills taught)
- Available skills from lectures
- High-level deliverable (one sentence)
- Why this is a natural breaking point
- Time estimate (3-6 hours)
Save to assignments/project-overview.md"
- Verify timing relative to exams/breaks
- Check milestone spacing
- Ensure progressive difficulty
- Manually edit for your voice and expectations
git commit -m "Add project overview with milestone timeline"
Stage 3: Expand Each Milestone
Work on ONE milestone at a time, not all at once
Prompt: "@project-overview.md has our overview.
Create detailed requirements at
@project-milestone-1.md for Milestone 1 only.
Include:
- Skills learned by Week 3 (reference lectures)
- Specific deliverables (files, docs, features)
- Acceptance criteria ("done" definition)
- Time estimate (3-5 hours)
- Why this milestone matters pedagogically"
Edit for Specificity
❌ AI draft:
"Create appropriate documentation"
✅ You edit:
"Create README.md with: title, description (2-3 sentences), 5+ features, tech stack. Use markdown from Lecture 2."
Repeat for remaining milestones: project-milestone-2.md, project-milestone-3.md, etc.
Stage 4: Lecture-Grounded Rubrics
Prompt: "Create grading rubric for
@project-milestone-3.md (20 points) that:
- Assesses technical correctness
- Focuses on NEW material since Milestone 2
- Uses code standards from
@lecture-notes/l2-best-practices.md
- References specific lectures for each criterion"
- Uses same terminology students learned
- Criteria grounded in what was taught
- Students can review specific lectures
- Makes grading feel predictable, not arbitrary
- TAs grade consistently
Stage 5: Generate Support Materials
Prompt: "Generate support materials for
@project-milestone-2.md:
- 'Getting Started' — concrete first steps
- 'Common Pitfalls' — typical errors and fixes
- 'Resources' — links to docs, tutorials, examples
Save to project-milestone-2-support.md"
Additional Support AI Can Generate
- FAQ (10 common questions + answers)
- Troubleshooting Guide (common errors + fixes)
- Simplified Example (different domain, demonstrates concept)
- Rubric Explanation (how to earn full credit)
Your job: Manually refine with your specific warnings, encouragement, and resources
Common Pitfalls
❌ Watch Out For:
Common Pitfalls
❌ Watch Out For:
1. Front-Loaded Difficulty — First milestone too ambitious
→ Ask AI: "Is milestone-1 achievable after lectures 1-3?"
2. Disconnected Milestones — Students start over each time
→ Ask AI: "Verify each milestone builds on previous deliverables"
3. Skills Gap — Milestone requires skills not yet taught
→ Ask AI: "Verify all required skills taught before Week 12"
4. No Feedback Loop — Grades without actionable guidance
→ Grade within 1 week; use AI feedback templates
5. Unrealistic Time Estimates — "Should take 3 hours" (takes 10)
→ Test-solve yourself. Add 50-100% buffer.
6. Vague Requirements — Students don't know when "done"
→ Ask AI: "Identify vague requirements; suggest measurable alternatives"
Adapting Mid-Semester with AI
Be responsive. Rigid adherence to original plan can tank student success.
⏱️ Milestones Taking Too Long
"Students struggling with M2 — taking 8 hours vs 5. Suggest ways to reduce scope of M3-M5 while preserving learning objectives."
⚡ Milestones Too Easy
"Students completing quickly. Suggest extension options for M3-M5 that challenge advanced students without changing core requirements."
AI helps you adapt quickly while maintaining pedagogical soundness.
Key Takeaways
- Staged Artifact Development — Build incrementally with review checkpoints
- Learning-Aligned Milestones — Each uses skills just taught
- Lecture-Grounded Rubrics — Reference specific lectures for predictability
- Human Judgment is Essential — AI drafts, you refine and decide
- Test-Solve Yourself — If you can't do it in allocated time, neither can students
- Be Responsive — Adapt mid-semester based on student progress
Remember: AI handles drafting and structure.
You provide pedagogy, refinement, and final judgment.
The Meta Lesson: AI Philosophy
What This Process Models
✅ Effective AI Usage:
- Only ask for what you can review for accuracy
- Break large tasks into reviewable chunks
- Iterate on scope when results unsatisfactory
- Maintain expertise through direct practice
- Make conscious decisions about assistance boundaries
❌ Ineffective AI Usage:
- "Generate complete project" → unreviewed bulk content
- No editorial checkpoints
- Loss of pedagogical voice
- Skill atrophy from over-delegation
This workflow embodies the principles we teach students about AI.
Questions?
Let's discuss:
- How might this approach adapt to your discipline?
- What review checkpoints matter most to you?
- Where do you see risks or limitations?
- How do you maintain pedagogical control with AI?