Explore Electronics Engineer Schools (2024)

Looking to start your journey as an Electronics Engineer? Finding the right education is key. Here's a curated list of schools offering quality Electronics Engineer programs:

  • We've identified top institutions known for excellent Electronics Engineer education.
  • Options include both local schools and nationally recognized programs.
  • Each listing highlights relevant degree programs for aspiring Electronics Engineer professionals.
  • You'll also find information on related career paths in the field.

Browse through these options to find a program that aligns with your career goals in the Electronics Engineer industry.

Top Electronics Engineer Schools (2024)

View our ranking methodology here
#1Alameda County

University of California-Berkeley

Berkeley, CA

In-State Tuition:$11,564
Out-of-State Tuition:$41,636
Admission Rate:11%
Graduation Rate:94%
Total Enrollment:45,307
#2Allegheny County

Carnegie Mellon University

Pittsburgh, PA

In-State Tuition:$59,864
Out-of-State Tuition:$59,864
Admission Rate:11%
Graduation Rate:92%
Total Enrollment:16,002
#3Fulton County

Georgia Institute of Technology-Main Campus

Atlanta, GA

In-State Tuition:$10,258
Out-of-State Tuition:$31,370
Admission Rate:17%
Graduation Rate:93%
Total Enrollment:45,296
#4Tippecanoe County

Purdue University-Main Campus

West Lafayette, IN

In-State Tuition:$9,718
Out-of-State Tuition:$28,520
Admission Rate:53%
Graduation Rate:83%
Total Enrollment:51,528
#5Brazos County

Texas A & M University-College Station

College Station, TX

In-State Tuition:$8,815
Out-of-State Tuition:$36,239
Admission Rate:63%
Graduation Rate:84%
Total Enrollment:74,014
#6King County

University of Washington-Seattle Campus

Seattle, WA

In-State Tuition:$11,189
Out-of-State Tuition:$39,687
Admission Rate:48%
Graduation Rate:84%
Total Enrollment:52,319

Electronics Engineer Required Education (2024)

To pursue a career as an Electronics Engineer, there are specific education requirements you should consider.

Minimum Education:

  • Bachelor’s Degree: You need at least a bachelor's degree in electronics engineering, electrical engineering, or a closely related field. This degree typically takes four years to complete and includes foundational knowledge in electronics, circuits, and system design.

Advanced Education:

  • Master’s Degree: While not mandatory, obtaining a master's degree in electronics engineering or a related field can enhance your knowledge and improve career advancement opportunities. This typically requires an additional two years of study and allows you to specialize in areas such as communications, signal processing, or embedded systems.

  • Doctorate Degree (Ph.D.): For those interested in research and academia, pursuing a Ph.D. can be beneficial. This involves several additional years beyond a master's and focuses on original research in a specific area of electronics engineering.

Both a master’s and Ph.D. degree can provide deeper insights and specialized skills that are valuable in advanced positions or research roles within the electronics industry.

Electronics Engineer Professional Certifications & Licenses (2024)

To enhance your qualifications as an electronics engineer, you may consider obtaining specific certifications and licenses that are recognized in the industry. These credentials can improve your employment prospects and demonstrate your expertise. Here’s a list of typically required certifications and licenses:

  • Engineer-in-Training (EIT) Certification:

    • This certification is often the first step toward becoming a licensed professional engineer (PE). You can obtain it by passing the Fundamentals of Engineering (FE) exam.

  • Professional Engineer (PE) License:

    • To become licensed as a PE, you must pass the Principles and Practice of Engineering (PE) exam after gaining the necessary work experience (usually four years).

  • Certified Electronics Technician (CET):

    • Offered by various certifying organizations, this certification can validate your competency in electronics technology.

  • Certified Engineering Technician (CET):

    • This certification, which may vary by state or region, shows proficiency in practical applications related to electronic engineering.

  • Cisco Certified Network Associate (CCNA):

    • While primarily focused on networking, this certification can be beneficial if your work involves networked electronics systems.

  • Certified Reliability Engineer (CRE):

    • This certification focuses on reliability principles and practices, which can be advantageous in product design and development for electronics.

  • Additional Vendor-Specific Certifications:

    • Certifications from manufacturers such as Microsoft, CompTIA, or others relevant to electronics systems can be valuable, especially in specialized fields.

  • Continuing Education Credits:

    • Participating in workshops, courses, or seminars relevant to electronics can help maintain your credentials and keep your skills current.

Consider the specific requirements in your state or employer preferences when choosing which certifications or licenses to pursue.

Job Duties for Electronics Engineers

  • Design, implement, maintain, or improve electrical instruments, equipment, facilities, components, products, or systems for commercial, industrial, or domestic purposes.

  • Direct or coordinate manufacturing, construction, installation, maintenance, support, documentation, or testing activities to ensure compliance with specifications, codes, or customer requirements.

  • Oversee project production efforts to assure projects are completed on time and within budget.

Technologies and Skills Used by Electronics Engineers

Analytical or scientific software

  • Minitab
  • The MathWorks MATLAB

Computer aided design CAD software

  • Autodesk AutoCAD Civil 3D
  • Autodesk Revit

Word processing software

  • Microsoft OneNote
  • Microsoft Word

Basic Skills

  • Reading work related information
  • Writing things for co-workers or customers

People and Technology Systems

  • Figuring out how a system should work and how changes in the future will affect it
  • Measuring how well a system is working and how to improve it

Problem Solving

  • Noticing a problem and figuring out the best way to solve it

Electronics Engineer Internships, Apprenticeships & Practical Training

As you navigate your path toward becoming an electronics engineer, gaining practical experience through internships and apprenticeships is essential. Here are several examples of opportunities you should consider:

  • Internship Programs at Technology Companies: Major tech firms such as Intel, Qualcomm, and Texas Instruments often offer summer internships for engineering students. These internships typically involve hands-on work in research, design, and development of electronic components and systems.

  • University Research Assistantships: Many universities provide research assistant positions within their engineering departments. These roles allow you to collaborate with faculty on cutting-edge projects, giving you the chance to apply your theoretical knowledge in a real-world setting.

  • Government Agencies: Various government entities, like NASA or the National Renewable Energy Laboratory, host internship programs aimed at engineering students. These internships often focus on advanced projects involving electronics in aerospace or renewable energy sectors.

  • Electronics Manufacturers: Companies like Honeywell and General Electric frequently offer internships in product development, testing, and quality assurance. These experiences can give you insight into the manufacturing process of electronic systems and devices.

  • Apprenticeship Programs in Industry: Some companies have structured apprenticeship programs designed for individuals seeking a combination of education and work experience. These often provide a comprehensive curriculum involving both engineering theory and practical skills in electronics assembly and maintenance.

  • Startups and Small Firms: Smaller companies or startups often seek interns for hands-on roles that allow you to wear multiple hats. This experience can include everything from circuit design to software integration, providing a well-rounded foundation in electronics engineering.

  • Nonprofit Organizations and Research Labs: Organizations that focus on community technology or educational outreach may offer internships to help develop electronic projects that serve a social purpose. These experiences can enhance your engineering skills as well as your ability to work in collaborative environments.

  • Internship Job Boards: Websites like Handshake, LinkedIn, and Glassdoor frequently post internship opportunities specifically for engineering students. Tailor your search filters to electronics engineering to find relevant openings.

Participation in any of the above opportunities will not only enhance your resume but also increase your understanding of electronic systems and workflows within a professional setting.

Electronics Engineer Continuing Education & Professional Development (2024)

As an electronics engineer, staying current with technological advancements and industry trends is essential for career advancement. There are numerous paths for continuing education and professional development that can enhance your skills and knowledge. Consider the following options:

Advanced Degrees

  • Master’s Degree: Pursuing a Master’s in Electrical Engineering or a related field can deepen your expertise and open doors to leadership roles.
  • Ph.D. Programs: For those interested in research or academic positions, a Ph.D. can provide opportunities to contribute to innovation and influence the next generation of engineers.

Certification Programs

  • Professional Engineer (PE) License: Obtaining your PE licensure demonstrates your commitment to the profession and can lead to greater responsibilities in project management and design.
  • Specialty Certifications: Consider certifications from reputable organizations such as the Institute of Electrical and Electronics Engineers (IEEE) or the National Institute for Certification in Engineering Technologies (NICET). Specializations may include:
    • Embedded systems
    • Communication systems
    • Power electronics

Workshops and Short Courses

  • Technical Workshops: Participate in hands-on workshops to learn about the latest tools and technologies, such as PCB design software or simulation tools.
  • Short Courses: Look for courses focusing on emerging topics like IoT, machine learning applications in engineering, and advanced circuit design.

Online Learning

  • MOOCs: Massive Open Online Courses (MOOCs) from platforms like Coursera, edX, or Udacity offer flexible learning experiences on cutting-edge topics relevant to electronics engineering.
  • Webinars and Virtual Conferences: Attend webinars and conferences to gain insights from industry leaders and networks without the need to travel.

Industry Associations

  • Networking Opportunities: Join associations such as IEEE or the Association for Computing Machinery (ACM) to access resources, workshops, and conferences aimed at professional growth.
  • Membership Benefits: Take advantage of publications, technical journals, and online forums that offer additional learning and networking opportunities.

Professional Development Plans

  • Self-Directed Learning: Create a plan that identifies specific skills you want to develop, along with resources like books, online courses, or mentorship.
  • Performance Reviews: Utilize feedback from performance reviews to set goals for the next year, focusing on skill areas you want to improve.

Cross-Disciplinary Skills

  • Management Training: Taking courses in project management or business can prepare you for roles that require overseeing projects and leading teams.
  • Soft Skills Development: Engage in training for effective communication, teamwork, and other interpersonal skills critical for collaboration in engineering projects.

Community Engagement

  • Volunteering: Participate in local engineering outreach programs or mentoring youth interested in STEM fields, which can reinforce your knowledge while giving back to the community.
  • Hackathons and Competitions: Join these events to apply your skills in practical scenarios, collaborate with peers, and learn innovative solutions to real-world challenges.

By engaging in these opportunities for continuing education and professional development, you enhance your skills, increase your marketability, and position yourself for future advancements in your career as an electronics engineer.

What To Look For When Deciding On Campus vs Online Degree Programs for Electronics Engineers (2024)

Choosing between online and campus-based education programs for a career in electronics engineering requires careful consideration of several factors, including flexibility, engagement, resources, and cost.

Online Education Programs

  • Flexibility: Online programs allow you to study at your own pace and schedule. This flexibility can be beneficial if you are balancing work or personal commitments.
  • Accessibility: You can access course materials and lectures from anywhere, making geographical constraints less of an issue.
  • Diverse Resources: Online programs often utilize a variety of multimedia resources, such as videos, simulations, and interactive tools, which can enhance your learning experience.
  • Networking Opportunities: While online programs may offer less in-person interaction, many include virtual networking events and discussion forums to connect with peers and professionals in the field.
  • Self-Discipline Required: Online study often requires strong time management and self-discipline skills since there may be less direct supervision and accountability.
  • Potential Isolation: You might experience feelings of isolation, as you won't have the same level of everyday interaction with instructors and fellow students as you would on campus.

Campus-Based Education Programs

  • Hands-On Experience: Campus programs typically include labs and hands-on projects, which provide valuable practical experience that is essential in the field of electronics engineering.
  • Direct Interaction: Attending classes on campus enables you to engage directly with professors and classmates, enhancing collaboration and support.
  • Structured Environment: The traditional classroom setting offers a structured schedule, which can help facilitate a consistent study routine and prompt accountability.
  • Access to Facilities: Campus locations often have specialized equipment and resources, including laboratories, libraries, and research facilities, which are not always available online.
  • Networking and Relationships: On-campus programs allow for face-to-face interactions, making it easier to build professional relationships with faculty and peers that can lead to internships and job opportunities.
  • Costconsiderations: Campus-based programs may be more expensive due to associated costs like commuting, housing, and campus fees, but they might also offer scholarships and tangible opportunities for on-campus employment.

Assessing your personal learning style, commitments, and career goals will help you determine which educational path aligns best with your aspirations as an electronics engineer.

Electronics Engineer Typical Career Path (2024)

As you embark on a career as an Electronics Engineer, you will typically progress through various levels of responsibility and expertise. Here is a breakdown of the common career trajectory you can expect.

Entry-Level Positions

  • Junior Electronics Engineer
    In this entry-level role, you will assist in the design, development, and testing of electronic systems and components. You may work under the supervision of more experienced engineers and contribute to project documentation and basic troubleshooting tasks.

  • Test Engineer
    In this position, you will focus on evaluating the performance and functionality of electronic products. Your responsibilities will include developing test plans, setting up testing environments, and analyzing results to ensure compliance with specifications.

  • Design Engineer
    Starting as a design engineer will involve creating circuit designs and schematics. You will use computer-aided design (CAD) software to develop electronic circuits, while also working on prototype development and revisions based on testing feedback.

Mid-Level Positions

  • Electronics Engineer
    After gaining experience, you will take on projects independently, leading design tasks and managing project timelines. You will analyze user requirements and ensure that designs remain compliant with industry standards.

  • Systems Engineer
    This role involves integrating various electronic systems and ensuring they work together effectively. You will need a solid understanding of both hardware and software components to manage complex projects.

  • Project Manager
    Transitioning into project management will require you to oversee multiple engineering projects, coordinating teams, budgets, and schedules. Your focus will be on meeting deadlines and ensuring the technical success of the projects.

Advanced Roles

  • Senior Electronics Engineer
    In a senior position, you will lead design initiatives and mentor junior engineers. Strategic planning and high-level design reviews will be part of your responsibilities, as well as interfacing with clients and stakeholders.

  • Technical Lead/Architect
    As a technical lead, you will provide direction on complex engineering designs and systems. This role entails making high-stakes decisions regarding technology and resource allocation.

  • Engineering Manager
    In this advanced role, you will manage teams of engineers, setting priorities and aligning them with organizational goals. You will be responsible for personnel development, hiring, and performance evaluations.

  • Director of Engineering
    The director position requires leadership over multiple engineering departments or projects. Your role will involve strategic decision-making, budget management, and influencing company policy regarding engineering practices.

Specialized Roles

  • Research and Development (R&D) Engineer
    In R&D, you will focus on innovating and developing new technologies. This may involve working on cutting-edge projects that require advanced problem-solving skills and collaboration with other fields, such as materials science or software engineering.

  • Field Application Engineer
    This role combines technical expertise with customer interaction. You will work directly with clients to solve their engineering problems, requiring both in-depth product knowledge and excellent communication skills.

By understanding these typical career stages, you can better plan your professional development and set realistic career goals as you advance in the field of electronics engineering.

Related Fields and Alternative Career Paths to Electronics Engineers (2024)

As an Electronics Engineer, your background equips you with a robust set of skills applicable across various industries. Below are some related fields and alternative career paths that you can consider, leveraging your education and expertise.

  • Electrical Engineer

    • Focuses on power systems, electromagnetism, and electrical circuits.
    • Significant overlap in coursework and projects, especially in circuit design and system analysis.

  • Computer Engineer

    • Integrates principles of Electronics and Computer Science.
    • Involvement in hardware-software integration, embedded systems, and digital signal processing.

  • Systems Engineer

    • Concentrates on the design and management of complex systems through their life cycles.
    • Skills in project management, system integration, and interdisciplinary collaboration are essential.

  • Robotics Engineer

    • Combines elements of mechanical engineering, electrical engineering, and computer science.
    • Utilizes knowledge of electronics in creating and programming robotic systems, making it a fitting alternative.

  • Communications Engineer

    • Specializes in transmission of information through various mediums.
    • Your understanding of electronics is directly applicable in designing and improving wireless and wired communication systems.

Alternative Career Paths

  • Automation Engineer

    • Works on designing and implementing control systems for machinery and operations.
    • Familiarity with electronic components and systems allows for effective application in production automation.

  • Field Service Engineer

    • Installs, maintains, and repairs electronic equipment in the field.
    • Direct interaction with customers and hands-on work require a solid understanding of electronic systems.

  • Technical Sales Engineer

    • Combines technical knowledge with sales skills, focusing on selling complex electronic products.
    • Communication and interpersonal skills become essential in this customer-focused role.

  • Product Development Engineer

    • Involves the entire product life cycle, from conception through development to production.
    • Your ability to understand circuitry, materials, and manufacturing can greatly enhance product design.

  • Quality Assurance Engineer

    • Ensures that electronic products meet specific standards and regulations.
    • Skills in testing, troubleshooting, and compliance are directly transferable from an electronics engineering background.

To pivot into these fields, consider the following strategies:

  • Additional Certifications or Training

    • Pursue relevant certification programs that align with the new field of interest, such as project management or specialized software training.

  • Networking and Professional Organizations

    • Engage with professional groups related to your target career. Networking can uncover job opportunities and provide insights from industry professionals.

  • Leverage Internships or Projects

    • Gain practical experience through internships or by participating in cross-disciplinary projects, allowing you to develop applicable skills and demonstrate versatility.

  • Tailoring Your Resume

    • Highlight transferable skills such as problem-solving, analytical thinking, and proficiency in specific tools or software relevant to the new field.

Utilizing your background in electronics engineering opens numerous avenues, making it possible to explore fulfilling career options while applying your fundamental skills in a new context.

Electronics Engineer Frequently Asked Questions (FAQs) (2024)

  • What education is required to become an Electronics Engineer?
    You typically need a bachelor’s degree in electronics engineering or a related field. Some positions may require a master’s degree, especially for advanced roles or specialized areas.

  • Are there specific courses I should take during my undergraduate studies?
    Yes, essential courses include circuit analysis, digital systems, microprocessors, signals and systems, and control systems. You should also consider classes in programming, physics, and mathematics.

  • Is accreditation important for my degree program?
    Yes, attending a program accredited by the Accreditation Board for Engineering and Technology (ABET) is important. It enhances the credibility of your degree and is often a prerequisite for licensure.

  • Do I need to obtain a professional engineer (PE) license?
    While not always required, obtaining a PE license can be beneficial for career advancement. To acquire this, you must have a degree from an accredited program, pass the Fundamentals of Engineering (FE) exam, work under a licensed engineer, and then pass the Principles and Practice of Engineering (PE) exam.

  • What skills are important for an Electronics Engineer?
    Critical thinking, problem-solving, attention to detail, and strong analytical skills are essential. Proficiency in computer-aided design (CAD) software and programming languages can also be very helpful.

  • Can I enter the field with an associate's degree?
    Yes, an associate's degree can prepare you for entry-level positions such as an electronics technician. However, advancement opportunities may be limited compared to those with a bachelor's degree.

  • Is continuing education necessary in this field?
    Yes, electronics engineering is continually evolving. Pursuing certifications, attending workshops, and engaging in professional development courses can keep you updated on the latest technologies and practices.

  • Do I need a specific GPA to enter a graduate program?
    Admission requirements vary, but a GPA of 3.0 or higher on a 4.0 scale is common for many graduate programs. Strong performance in relevant coursework is also beneficial.

  • What are the benefits of internships during my studies?
    Internships provide practical experience, exposure to industry practices, and networking opportunities. They can also significantly enhance your resume and increase your chances of securing a full-time position upon graduation.

  • Are there online degree programs available for Electronics Engineering?
    Yes, many accredited institutions offer online degree programs in electronics engineering. Ensure that the program is accredited to meet industry standards and requirements.

Additional Resources for Electronics Engineers (2024)

  • Accredited Engineering Programs

  • Professional Organizations

  • Continuing Education and Professional Development

    • Coursera
      Offers online courses in electronics and electrical engineering from renowned universities, helping you to stay updated on the latest technologies.
    • edX
      A platform that provides various online courses and MicroMasters programs in electronics and related fields from leading institutions.

  • Technical Standards and Reference Materials

  • Job Boards and Career Resources

    • Engineering Jobs
      A specialized job board focusing on engineering positions, including electronics engineering roles.
    • IEEE Job Site
      A job portal dedicated to engineering and technology jobs, connecting you with employers in the field.

  • Books and Publications

    • [“Engineering Electromagnetics” by William H. Hayt and John A. Buck]
      A fundamental textbook that covers key principles in electromagnetics in engineering applications.
    • [“Microelectronic Circuits” by Adel S. Sedra and Kenneth C. Smith]
      A widely-used textbook for understanding microelectronic circuit design principles.

  • Online Forums and Communities

  • Certification Programs

  • Government Resources

Utilizing these resources can significantly aid you in your education, professional development, and career advancement within the field of electronics engineering.