Course: Engineering Materials Science
Topic: Phase Diagram
This card illustrates an innovative approach to improve course assignments in a 300-level undergraduate materials science course. Traditional textbook problems were transformed into narrative scenarios, directly connecting theoretical concepts to real-world applications. This multi-step storytelling technique was applied to two distinct situations, focusing on the phase diagrams of copper-nickel (Cu-Ni) and tin-lead (Sn-Pb) alloys. The assignment required students to:
To implement this activity, you primarily need creativity, storytelling skills, and research abilities. However, to enhance the experience and effectiveness, consider the following additional resources:
These elements can help create a more engaging and memorable learning experience for the students.
It's crucial to provide a clear explanation of the assignment's context and requirements before students begin their work. This ensures they understand the objectives and can approach the task effectively.
Example 1: Example 1 is based on Sn-Pb alloy, where students present posters. One group of students serve as customer and another group serve as companies. Customer groups evaluate the performance of the company groups.
Example 2: Example 2 is based on Cu-Ni alloy, where students works in pairs to submit a report. All groups pretend to be the engineers of a company. Example 2 is a simplified version which does not require any kind of presentation and peer-evaluation.
*** In both example 1 and example 2, students were asked to create a name and logo for their company.
Story-Telling Step 1: I adapted a textbook problem into a narrative that links the concept to a real-world application of the alloy. This approach transforms abstract mathematical or scientific concepts into relatable scenarios, making the material more engaging and demonstrating its practical relevance. By contextualizing the problem within a story, students can better visualize how the principles they're learning apply to actual situations, potentially increasing their interest and understanding of the subject matter.
Story-Telling Step 2: I created a narrative framework for the assignment, casting students as engineers in a company. Their task is to design an alloy that solves the narrative problem mentioned in step 1. This approach aims to engage students more deeply with the material by giving them a practical context for applying their knowledge.
Story-Telling Step 3: To encourage peer-teaching and collaboration, I created a separate group of students to act as customers or stakeholders, connecting them to the scenario from step 1. I developed a narrative for these customers/stakeholders who will purchase the alloy or service offered by the student engineers in step 2.
This setup mimics a real-world business environment where companies pitch their solutions to potential clients or investors. It encourages students to consider both the technical aspects of their designs and the practical, market-oriented aspects of presenting and selling their ideas.
Catalyst for imagination and creative mindset, connection to practical relevance and tangible ideas, exposure to diverse viewpoints, motivation to create solution that offers value