Engineering Design Process vs 5E Model: Key Differences for STEM Teachers

I By Sean Newman Maroni

Engineering Design Process vs. 5E Model: Which Framework Should You Use?

STEM education relies on systematic approaches that help students develop problem-solving skills. Two frameworks dominate classroom practice: the engineering design process and the 5E model. Each serves a distinct purpose, but educators often confuse when to use which approach.

STEM occupations are projected to grow 8.1% from 2024 to 2034, nearly three times faster than all other occupations. Students need structured experiences that prepare them for technology careers. Understanding the difference between these frameworks helps educators make that happen.

What Is the Engineering Design Process?

The engineering design process is a problem-solving methodology that engineers use to create solutions. Students follow iterative steps to develop, test, and refine prototypes.

The engineering design process steps:

  1. Ask - Define the problem and constraints
  2. Imagine - Brainstorm solutions and gather data
  3. Plan - Select an idea and create a blueprint
  4. Create - Build a prototype
  5. Test - Evaluate performance
  6. Improve - Refine based on results

The process repeats as needed. Testing reveals flaws that send students back to planning. Improvements trigger new testing cycles.

When students use it: Building a bridge, designing a water filter, or creating assistive devices. Betabox Hands-On Projects apply this process to building technology systems like self-driving cars and robotics.

What Is the 5E Model?

The 5E model is an instructional design framework developed by BSCS and Rodger Bybee. Teachers use it to sequence learning activities that build deep understanding.

The five phases:

  1. Engage - Capture interest and reveal prior knowledge
  2. Explore - Provide hands-on experiences
  3. Explain - Introduce formal concepts and vocabulary
  4. Elaborate - Apply knowledge to new situations
  5. Evaluate - Assess understanding

Each phase builds on the previous one. Students construct understanding through guided experiences rather than lectures.

When teachers use it: Planning 2-3 week learning sequences where students progress from concrete experiences to abstract concepts. Each phase forms the basis for one or more lessons.

Key Differences at a Glance

Aspect Engineering Design Process 5E Model
Primary Purpose Solve problems, create solutions Structure learning experiences
User Students as problem-solvers Teachers as lesson designers
Structure Iterative cycle, repeat as needed Linear sequence of 5 phases
Timeline Varies by project 2-3 weeks typically
Outcome Working prototype or solution Conceptual understanding
Assessment Focus Solution effectiveness Knowledge and skill growth

The engineering design process asks, "How do we solve this problem?" 

The 5E model asks, "How should I sequence learning?"

Which Framework Should You Use?

Choose the engineering design process when:

  • Students need to solve open-ended problems
  • Creating functional solutions is the goal
  • You want to develop design thinking and iteration skills
  • Projects require testing and refinement

Choose the 5E model when:

  • Planning comprehensive unit sequences
  • Building conceptual understanding is the priority
  • You need a structure for multiple lessons across weeks
  • Assessment of knowledge is essential

Use both together when:

  • Projects require conceptual understanding AND problem-solving
  • You have 2-3 weeks for a learning sequence
  • Students can apply new knowledge through design challenges

Most effective STEM instruction combines both. The 5E model structures the learning journey. During the Elaborate phase, students tackle engineering challenges that require the design process.

Example integration: A teacher uses the 5E model for a forces and motion unit. Students engage with demonstrations, explore variables affecting motion, and learn Newton's laws formally. During Elaborate, they receive a design challenge: create a vehicle that travels a specific distance. Here, the engineering design process takes over. Students ask, imagine, plan, create, test, and improve their vehicles. The final Evaluate phase assesses both conceptual understanding and problem-solving effectiveness.

Implementing in Your Classroom

  1. Define clear outcomes. Know what students should understand and be able to do. Select the framework that supports those outcomes.
  2. Plan adequate time. The engineering design process requires multiple iterations. The 5E model needs 2-3 weeks, not a single lesson, to be effective.
  3. Provide structure without limiting creativity. Both frameworks guide students while allowing choice. Define constraints, but let students determine solutions.
  4. Assess process and product. Evaluate how students apply steps and measure conceptual growth throughout.

Betabox resources integrate both frameworks. On-site Field Trips create engagement that sparks 25% increases in STEM interest. Hands-On Projects guides students through the design process while building career connections. 

Book a Blueprint call to explore implementation for your school.

Frequently Asked Questions

Can elementary students use the engineering design process? 

Yes. Elementary students successfully apply the engineering design process steps with age-appropriate challenges and simplified language.

Why does the 5E model require 2-3 weeks? 

Each phase needs adequate time for meaningful learning. Using the 5E model in a single lesson reduces effectiveness because students lack time to explore, construct understanding, and apply knowledge.

When should Explain come in the 5E model? 

Always after Explore. Students share observations from exploration, then teachers introduce formal concepts. Explaining before exploring reduces the model's effectiveness.

How do these frameworks prepare students for STEM careers? 

The engineering design process builds problem-solving abilities that engineers use daily. The 5E model develops critical thinking and evidence-based reasoning. STEM occupations offer median wages of $103,580, more than double the $49,500 median for all occupations.

Blogs

Our Recent Blogs

Free STEM Growth For Educators Everywhere

Create your free
STEM Engagement Blueprint

At Betabox Learning, we are passionate about making hands-on STEM curricula accessible to all students.