Skip to content

Run the course-description-analyzer Skill

Prompt

Run the course-description-analyzer skill

The "course-description-analyzer" skill is running

⏺ I'll run the course-description-analyzer skill to analyze the course description for your high school physics course.

⏺ Read(docs/course-description.md) ⎿  Read 427 lines

⏺ Now I'll analyze this course description using the quality scoring system from the skill.

Course Description Analysis Report

Overall Score: 82/100

Quality Rating: Good - Minor improvements recommended


Detailed Scoring Breakdown

Element Points Earned Max Points Notes
Title 5 5 ✓ Clear title present
Target Audience 5 5 ✓ "Grades 10-12" clearly specified
Prerequisites 5 5 ✓ "Algebra II, Geometry" listed
Main Topics Covered 10 10 ✓ Comprehensive 12 major topic areas listed
Topics Excluded 5 5 ✓ Clear boundaries (Quantum, Atomic, Circuits, etc.)
Learning Outcomes Header 5 5 ✓ Clear objectives for each Bloom level
Remember Level 10 10 ✓ Excellent: 5 specific outcomes with examples
Understand Level 10 10 ✓ Excellent: 5 specific outcomes with strategies
Apply Level 10 10 ✓ Excellent: 5 specific outcomes with assessment examples
Analyze Level 8 10 ⚠ Good: 5 outcomes but could be more specific on relationships
Evaluate Level 9 10 ⚠ Strong: 5 outcomes but limited practical application examples
Create Level 10 10 ✓ Excellent: 5 outcomes plus 2 detailed capstone projects
Descriptive Context 0 5 ✗ Missing: No explanation of course importance/value

Gap Analysis

Missing Elements:

  1. Descriptive Context (0/5 points): The course description lacks a "Why this course matters" section explaining:
    • Real-world relevance of physics
    • Career pathways it supports
    • Skills students gain beyond physics knowledge
    • Connection to modern technological challenges

Elements Needing Strengthening:

  1. Analyze Level (8/10 points): While 5 outcomes are present, they could be more explicit about:
    • How students will identify cause-and-effect relationships
    • Methods for breaking down complex multi-step problems
    • Specific analytical frameworks students will master
  2. Evaluate Level (9/10 points): Strong foundation, but could include:
    • More examples of real-world evaluation scenarios
    • How students assess competing scientific claims
    • Evaluation of emerging technologies using physics principles

Improvement Suggestions

Priority 1: Add Descriptive Context Section

Add a section after the Course Overview explaining:

## Why This Course Matters

This physics course develops critical thinking and quantitative reasoning skills essential for STEM careers, informed citizenship, and everyday decision-making. Students learn to: - Analyze real-world problems using scientific methods - Evaluate technology claims and environmental solutions - Design evidence-based solutions to engineering challenges

Career pathways include engineering, medicine, architecture, renewable energy, aerospace, data science, and technology development. The course prepares students for AP Physics, college science requirements, and technical fields requiring strong analytical skills.

Priority 2: Enhance Analyze Level Outcomes

Add 1-2 more specific examples: - "Deconstruct multi-step physics problems by identifying which principles apply at each stage" - "Map cause-and-effect relationships in complex systems (e.g., how car design affects collision outcomes)"

Priority 3: Expand Evaluate Level Applications

Include contemporary examples: - "Evaluate claims about electric vehicles, solar panels, and energy storage using physics principles" - "Assess the feasibility of emerging technologies (hyperloop, space elevators) using physical constraints"


Concept Generation Readiness

Assessment: EXCELLENT ✓

This course description is well-positioned to generate 200+ concepts:

  • Current concept count: 200 concepts explicitly listed across 12 topic areas
  • Topic breadth: Comprehensive coverage from foundations through electricity
  • Bloom's Taxonomy depth: All 6 levels thoroughly developed with multiple outcomes each
  • Concept diversity: Mix of theoretical concepts, practical applications, problem-solving methods, and evaluation skills

Estimated potential: 220-250 concepts when including: - Pedagogical concepts (assessment types, instructional strategies) - Cross-cutting concepts (mathematical methods, experimental techniques) - Meta-cognitive concepts (problem-solving frameworks, evaluation criteria)


Next Steps

Recommended Actions:

  1. ✓ Ready to proceed with learning graph generation - The 82/100 score exceeds the 75-point threshold
  2. Add the descriptive context section (5-minute task) to reach 87/100 for excellence tier
  3. Optionally enhance Analyze and Evaluate levels for comprehensive 90+ score

For Learning Graph Generation: - Use the 200 concepts listed in "Concepts Covered" as the foundation - Bloom's Taxonomy sections provide excellent guidance for concept relationships - The comprehensive topic structure ensures proper concept distribution

Would you like me to: 1. Add the missing descriptive context section to improve the score to 87/100? 2. Proceed with learning graph generation using the current description? 3. Make all suggested enhancements for a 90+ score before generating the learning graph?