How Applied EV Learning Builds Workforce-Ready Students

How Applied EV Learning Builds Workforce-Ready Students

How Applied EV Learning Builds Workforce-Ready Students 799 449 Brandon Watt

A practical model for developing critical thinking, collaboration, communication, creativity, and career readiness through hands-on electric vehicle education.

 

Why CTE Leaders Need Applied EV Pathways

Career and Technical Education (CTE) leaders are being asked to prepare students for a workforce that is changing faster than many traditional programs can keep pace with. Career readiness is no longer a secondary outcome. According to Advance CTE’s 2025 update on career readiness accountability, 43 states now include at least one career-focused indicator in their state or federal accountability systems. At the same time, ACTE reports that 74% of employers see a persistent mismatch between the skills they need and the skills workers have, with the United States facing a projected deficit of 6 million skilled workers by 2032.

The transportation and automotive sectors show why this matters for CTE programs. The U.S. Bureau of Labor Statistics projects about 70,000 openings per year for automotive service technicians and mechanics from 2024 to 2034 and notes that students benefit from preparation in automotive repair, electronics, computers, and mathematics. As vehicle platforms become more sophisticated, BLS also notes that electric vehicles require specialized skills and knowledge, including formal technical training.

For CTE administrators, this creates both a challenge and an opportunity. Programs must do more than introduce students to emerging technology. They must help students build technical competence, reinforce professional behaviors, develop marketable skills, and demonstrate readiness for post-secondary training or entry-level careers.

 

The 5 C’s of Career Technical Education – critical thinking, collaboration, communication, creativity, and career readiness – provide a practical framework for evaluating whether students are being prepared for the expectations of modern technical work.

 

Switch Vehicles addresses this need through a complete, integrated EV education pathway.  Providing far more than a single classroom project, Switch students’ progress from foundational electrical concepts and battery systems to complex EV components, high-voltage safety, diagnostics, and full vehicle assembly. This pathway provides CTE administrators with a scalable model for building student competency over time, while helping local workforce partners see a clear connection between classroom learning and the technical skills needed for careers in automotive, transportation, clean energy, and advanced technology.

 

The 5 C’s of Career & Technical Education

The 5 C’s are often described as transferable skills. In a strong CTE program, they are more than classroom ideals. They are observable behaviors that show whether students can apply technical knowledge, work responsibly, solve problems, communicate decisions, and prepare for the next step in their pathway.  We’re going to evaluate them in greater detail, demonstrating how Switch’s labs enable student success in each area.

“The Switch Vehicle pushes students to apply all the attributes that we are trying to instill in them. Persistence, professionalism, and communication.”

 – Matthew Johnson, EV Technology Instructor, Muskegon Innovation Center

1. Critical Thinking: Systems-Level Understanding and Diagnostic Reasoning

Critical thinking in CTE is not simply the ability to answer a technical question. It is the ability to analyze a system, identify relationships between components, interpret symptoms, and determine logical next steps. That is why systems-level learning is central to Switch Vehicles’ EV education pathway.

Bluegrass College students problem solving with the Electric Systems Lab

With The Switch Lab EV, students trace how energy moves from charging systems to batteries, controllers, motors, low-voltage circuits, and drivetrain components. They learn how electrical, mechanical, and control systems interact. When a fault appears, they must determine whether the issue is related to wiring, configuration, component behavior, safety procedures, or sequencing. When configuring their build, they develop appropriate correlations between their inputs and system outputs.  This creates diagnostic reasoning and root-cause analysis, the same habits students need in modern technical careers.

 

2. Collaboration: Team-Based Learning That Mirrors Technical Workplaces

Modern technical workplaces rely on coordination, role clarity, shared accountability, and clear handoffs between team members. The Switch Lab EV Pathway naturally facilitates those conditions during each build process.  Each project requires students to work in defined roles:  wiring technician, safety lead, documentation specialist, system tester, project manager, or quality control. Each role matters because the final result depends on coordinated execution.

“Our Auto Tech students are learning real-world skills, working together as teams, and problem-solving, which will all serve them well after they have graduated.”

 – Kenny Ritchie, Principal, Bonita High School

This makes collaboration concrete and reinforces the practice throughout the Switch Pathway. Students must plan the order of work, communicate progress, check each other’s steps, and manage the consequences of incomplete or inaccurate work. They also learn that successful technical work requires both individual responsibility and team performance. For administrators, that matters because marketable skills are deeply embedded throughout the pathway rather than added as a separate lesson.

 

3. Communication: Technical Literacy and Professional Documentation

Bellingham HS instructor communicating the brake bleeding procedure

The value of technical skill is limited if students cannot explain what they did, document how they did it, and communicate why their decisions matter. The Switch Lab EV Pathway provides students with repeated opportunities to practice technical communication in a real-world project environment.

Students will share manuals, wiring diagrams, schematics, safety documentation, testing procedures, and build instructions. They must document completed work, record test results, explain system behavior, and communicate issues to peers and instructors. These tasks help students build confidence in professional language while providing instructors with evidence of learning beyond mere task completion.

 

4. Creativity: Innovation Within Real-World Constraints

Creativity in technical education is not unlimited experimentation. It is the ability to improve a design, address constraints, test an idea, and iterate safely within defined requirements. The Switch Lab EV Pathway supports this kind of disciplined creativity because students work with functional systems subject to a range of different constraints:  safety, performance, space, sequencing, and documentation constraints.

Students may make creative changes to component layout, wiring organization, dashboard design, performance tuning, fabrication, or other system improvements. Advanced learners working on the capstone vehicle build can even explore topics such as regenerative braking, controller configuration, battery management, efficiency, and develop their own custom modifications. These activities encourage design thinking while reinforcing the importance of standards, safety, and responsible testing.

 

5. Career Readiness: Technical Skills Connected to Workforce Expectations

Career readiness is the point where the other four C’s converge. Students must be able to perform all of these skills concurrently: think critically, collaborate, communicate, and solve problems in ways that prepare them for additional technical training, employment, and/or continued education. The Switch Lab EV Pathway supports this goal by connecting classroom instruction and workshop skills that align with a range of future career opportunities in modern EV / automotive manufacturing & repair, clean energy, electrical work, and engineering-related advanced transportation pathways.

“It is challenging, and it is helping me learn new electrical skills.”

 – Abdoul Sokhna, automotive student, Community College of Philadelphia

Students gain exposure to low- and high-voltage systems, wiring and termination, schematics, diagnostic workflows, battery systems, motor controllers, battery management systems, safety procedures, and troubleshooting. Switch Vehicles programs also support preparation for ASE xEV Level 1 and Level 2 safety competencies, giving schools a clearer connection between classroom instruction and industry-recognized expectations.

 

Teacher Training, Safety, and Sustainable Implementation

A strong CTE pathway depends on more than equipment. Administrators also need a realistic implementation model. Teachers need training. Students need clear procedures. Programs need curriculum, safety equipment, support, and a structure that can be repeated with future cohorts.

Instructors successfully completing the Switch Lab EV workshop

“To be able to lay the foundations in the classroom and then assign them a very complicated piece of a car is exactly what you look for in a student.”

 – Joshua Fitkin, STEM teacher

Switch Vehicles supports implementation through instructor workshops, curriculum resources, assembly documentation, online support, safety equipment, and a reusable build model. Instructors experience the project through a train-the-trainer approach by building the vehicle themselves before leading students through the process. This helps reduce the knowledge gap that many instructors face when moving from internal combustion platforms to EV systems.

 

A Pathway Asset for Schools, Districts, and Colleges

The strongest CTE investments are not single-use purchases. They are durable instructional assets that can serve multiple classes, support multiple outcomes, and help programs grow over time. The Switch Lab EV Pathway is designed to be reliably reusable and rebuildable, providing successive cohorts of students with repeatable education with assembly, testing, disassembly, and even improving the vehicle year after year.

“We now have 64 students in our program. We have doubled enrollment. We have wait lists now because we have such high interest.”

 – Ed Hicks, Automotive Technology Instructor, Mississippi Gulf Coast Community College

The impact can extend beyond the classroom. At Mississippi Gulf Coast Community College, instructor Ed Hicks reported that the automotive program doubled enrollment, growing to 64 students and developing wait lists.  They ultimately purchased a second Switch vehicle to meet this expanded student interest. Read the MGCCC case study.

 

Practicing the 5 C’s Through Authentic Learning

The 5 C’s become meaningful when students practice them in a setting that requires real decisions and produces a real result. The Switch Lab EV Pathway turns critical thinking, collaboration, communication, creativity, and career readiness into visible student behaviors. Students are not only learning about EV technology. They are building confidence, technical literacy, professional habits, and a clearer understanding of how classroom learning connects to the modern workforce.

For CTE administrators evaluating pathway expansion, The Switch Lab EV offers a practical way to align student engagement, technical skill development, safety, teacher training, and workforce readiness in one applied learning model. It gives schools a project students can see, touch, build, test, explain, improve, and remember.

To explore how The Switch Lab EV can support your school, district, college, or technical training program, contact Switch Vehicles to discuss pathway options, curriculum alignment, instructor training, and implementation planning.