Comprehensive Course Design for Engineering Students at Korea Aerospace University

Optimizing an 84-Hour English Course for Diverse Engineering Disciplines

Key Takeaways

• Structured Modular Approach: Divide the course into distinct modules focusing on foundational skills, technical language, and advanced technical writing.
• Integration of AI and Peer Learning: Utilize AI tools for technical writing and foster peer-assisted learning to cater to varying proficiency levels.
• Real-World Engineering Context: Incorporate field-specific examples and practical activities to enhance relevance and engagement.

Course Structure and Scope Refinement

Modular Division for Effective Learning

Organizing the 84-hour course into three comprehensive modules ensures a balanced distribution of content and allows students to build upon foundational knowledge progressively.

Module 1: Foundational Skills (Weeks 1-4)

• Development of independent study and discovery skills.
• Introduction to Greek/Latin roots, basic morphemes, and collocations.
• Comprehension and production of large numbers, focusing on English conventions.

Module 2: Technical Language and Measurement (Weeks 5-9)

• Understanding and using engineering-specific units and measurements.
• Expressions for spatial relationships through practical activities like Lego assemblies.
• Enhanced critical analysis and technical description skills.

Module 3: Advanced Technical Writing and Application (Weeks 10-14)

• Development and refinement of technical papers, including outlining, drafting, and peer reviews.
• Application of AI tools for technical writing and content evaluation.
• Final presentations and comprehensive assessments.

Addressing Course Goals and Challenges

Goal 2: Inferring Meaning of New Language

To enhance students' ability to infer the meaning of new language constructs, integrate activities that focus on engineering-specific terminology and interactive word creation.

• Engineering-Specific Morphemes: Utilize roots like "thermo-", "aero-", and "electro-" to create meaningful word guesses and constructions.
• Interactive Word Games: Engage students in activities where they create and guess each other’s fabricated engineering terms, fostering collaborative learning.
• AI-Assisted Vocabulary Building: Implement AI tools to generate example sentences and provide instant feedback on newly created words.

Goal 3: Comprehend and Produce Large Numbers

Facilitating the understanding and usage of large numbers in English requires contextual and practical applications relevant to engineering.

• Real-World Scenarios: Incorporate activities using engineering datasets such as aircraft specifications and material properties to practice large numbers.
• Simulation Exercises: Conduct role-playing scenarios where students act as buyers and sellers, negotiating quantities and prices using large numbers.
• Gamified Learning: Implement games like "number auctions" to make the practice of large numbers engaging and competitive.
• Conversion Workshops: Organize workshops focused on converting numbers between metric and imperial units, enhancing both numerical and measurement skills.

Goal 4: Comprehend and Produce Units in English

Addressing the diversity of units across engineering disciplines involves targeted instruction and collaborative activities.

• Explicit Units Introduction: Provide clear instruction on common engineering units and prefixes, tailored to different engineering fields.
• Field-Specific Presentations: Assign groups to research and present units pertinent to their specific engineering disciplines, promoting interdisciplinary understanding.
• Hands-On Conversion Activities: Facilitate activities where students convert units and apply them in technical descriptions and calculations.
• Collaborative Glossary Development: Create a shared glossary where students contribute and define units relevant to various engineering fields.

Goal 5: Comprehend and Produce Expressions for Spatial Relationships

Effective communication of spatial relationships is crucial for engineering students, and utilizing practical tools like Lego and CAD software can enhance this skill.

• Progressive Lego Activities: Start with simple assembly instructions and gradually increase complexity, ensuring clarity and precision in descriptions.
• Integration with 3D Modeling: Use CAD tools like Tinkercad or Fusion 360 alongside physical models to simulate real-world engineering design tasks.
• Peer Teaching: Encourage advanced students to lead spatial relationship tasks, supporting lower proficiency peers through collaborative learning.

Goal 6: Critically Analyze and Describe Engineering Systems

Developing critical analysis and technical writing skills requires structured guidance and opportunities for iterative feedback.

• Structured Technical Writing Workshops: Provide templates and clear guidelines for outlining, drafting, and finalizing technical papers.
• Peer Review Sessions: Facilitate workshops where students critique each other's drafts, fostering a collaborative improvement process.
• AI Integration: Teach students to effectively use AI tools for generating content ideas and evaluating the accuracy and completeness of their technical writings.
• Focused Topic Selection: Offer a curated list of engineering systems or devices for paper topics to ensure relevance and manageability.

Assessment and Grading Refinement

Portfolio/Vocabulary Journal (10%)

To encourage consistent engagement and modernize the submission process:

• Cloud-Based Tools Recommendation: Suggest platforms like Google Keep, Notion, or Microsoft OneNote for creating and maintaining digital vocabulary journals, allowing multimedia integration.
• Flexibility with Requirements: While digital submissions are encouraged, provide options for paper-based journals with scanned or photographed entries to accommodate all preferences.
• Structured Templates: Offer templates to guide students in organizing their journals effectively, ensuring consistency and comprehensiveness.

Tests (20%)

Enhancing the assessment of comprehension and production of large numbers and units:

• Incorporate Listening Comprehension: Include oral components in tests to assess the ability to interpret and articulate large numbers and units verbally.
• Real-World Application: Design test questions that require applying numbers and units in engineering contexts, ensuring practical relevance.

Participation (20%)

Creating a detailed rubric to assess various aspects of participation:

Final Technical Paper (40%)

Ensuring a comprehensive assessment of technical writing skills:

• Outline (10%): Logical organization and hierarchical structuring of content.
• Draft (5%): Initial submission reflecting understanding and application of technical concepts.
• Final Paper (20%): Detailed and refined technical paper meeting all outlined requirements.
• Peer Feedback (5%): Constructive analysis and feedback provided to classmates' drafts.

Enhancing Engagement and Practical Application

Incorporating Real-World Engineering Challenges

Integrating authentic engineering problems and projects can significantly enhance the applicability and interest of the course content.

• Case Studies: Use real-world engineering case studies that require students to apply their language skills to solve complex problems.
• Mini-Projects: Assign projects such as designing a drone or analyzing a mechanical system, encouraging practical use of technical language.
• Simulation Tools: Utilize engineering simulation software to create scenarios where students must communicate technical specifications and findings.

Leveraging Peer Learning and Collaboration

Fostering a collaborative learning environment caters to diverse proficiency levels and promotes mutual support.

• Peer Teaching Systems: Implement strategies where higher proficiency students assist and mentor lower proficiency peers, ensuring knowledge transfer.
• Mixed-Ability Groups: Form groups with varied language skills to encourage collaboration and balanced participation in activities.
• Collaborative Online Tools: Use platforms like class wikis or collaborative documents to facilitate shared learning and resource building.

Utilizing AI Tools for Enhanced Learning

Incorporating AI tools can streamline technical writing processes and provide instant feedback, thereby enhancing learning outcomes.

• AI Writing Assistants: Encourage the use of AI tools like Grammarly or ChatGPT to assist in drafting and revising technical papers.
• Prompt Engineering: Teach students how to create effective prompts for AI tools to generate accurate and relevant technical content.
• Content Evaluation: Use AI to help students evaluate the accuracy and completeness of their technical writings, promoting critical thinking.

Conclusion

Designing an English course for a diverse group of engineering students at Korea Aerospace University involves balancing foundational language skills with specialized technical communication. By structuring the course into clear modules, leveraging AI and peer learning, and incorporating real-world engineering contexts, the course can effectively cater to varying proficiency levels while maintaining relevance and engagement. Refining assessments to reflect course goals and providing flexible, modern tools for vocabulary building further enhances the learning experience, ensuring students develop the necessary skills for academic and professional success in their engineering fields.

References

onlinelibrary.wiley.com

Enhancing Design Thinking in Engineering Students

emerald.com

Principles and Practices of Modular Course Design

abaenglish.com

ABA English Levels

topuniversities.com

Korea Aerospace University Overview

standyou.com

Study Abroad at Korea Aerospace University