2027 How to Become an Automation Engineer: Education, Salary, and Job Outlook

Imed Bouchrika, PhD

by Imed Bouchrika, PhD

Co-Founder and Chief Data Scientist

What credentials do you need to become an automation engineer?

Most automation engineer roles require a strong technical education, practical project experience, and evidence that you can work with both hardware and software systems. In the United States, 63.36% of automation engineer job postings explicitly require a bachelor's degree, while 14.92% demand a master's degree. That means a degree is not just helpful; for many roles, it is the baseline screening requirement.

The most common path is a bachelor's degree in engineering, computer science, robotics, electrical engineering, mechanical engineering, mechatronics, or a closely related technical field. Employers often look for coursework or projects involving control systems, programming, statistics, databases, artificial intelligence, robotics, and industrial processes.

Key credentials for automation engineers include:

  • Bachelor's degree: A four-year technical degree is the standard entry credential for many automation roles. It gives you the engineering math, programming, systems thinking, and lab experience needed to work safely and effectively with automated systems.
  • Graduate degree: A master's degree can help if you want to move into advanced design, robotics, AI-enabled automation, research, technical leadership, or roles where employers explicitly prefer deeper specialization.
  • Certified Automation Professional (CAP): Offered by the International Society of Automation (ISA), this credential can help experienced professionals demonstrate broad knowledge of automation systems and professional standards.
  • Certified Control Systems Technician (CCST): Also offered by ISA, this certification has three levels and is useful for professionals who work closely with instrumentation, control systems, calibration, and industrial troubleshooting.
  • Technical training: Employers value hands-on ability with programming languages such as Python and Java, automation frameworks, SCADA systems, HMI systems, PLCs, sensors, actuators, and industrial networks.
  • Applied experience: Internships, co-ops, lab courses, capstone projects, maker projects, robotics competitions, and manufacturing work experience can be decisive because automation engineering is highly practical.

If you are not ready for a four-year program, an associate-level technical pathway can help you build math, electronics, programming, and industrial maintenance foundations before transferring or moving into technician roles. Students comparing shorter programs can review accelerated associate degrees as one possible starting point.

What skills do you need to have as an automation engineer?

Automation engineers need a mixed skill set: part software developer, part systems troubleshooter, part process engineer, and part communicator. The best candidates can write code, understand equipment behavior, interpret data, document changes, and explain technical decisions to operators, managers, developers, and other engineers.

For 2025 hiring expectations, employers increasingly favor automation engineers who can connect traditional industrial controls with modern software practices such as version control, testing frameworks, and DevOps workflows.

Core technical skills

  • Programming proficiency: Python, C++, Java, C#, and JavaScript are valuable depending on the role. Python is especially useful for scripting, testing, data analysis, and automation workflows.
  • Automation testing tools: Selenium, Cypress, JUnit, and TestNG are commonly associated with software test automation and quality assurance environments.
  • PLC programming and industrial protocols: Ladder logic, Modbus, and OPC are important for engineers working with industrial equipment, sensors, controllers, and plant-floor systems.
  • Control systems and SCADA: Automation engineers must understand how to design, monitor, maintain, and troubleshoot supervisory control and data acquisition systems.
  • Robotics and motion control: Experience with robotic arms, conveyors, actuators, drives, sensors, and motion systems is increasingly useful as factories and warehouses adopt more automated equipment.
  • Industrial networking: Reliable automation depends on communication between machines, controllers, databases, and monitoring tools, so network fundamentals and protocol knowledge are important.
  • CI/CD pipelines and DevOps: Git, deployment automation, build pipelines, and environment management are valuable for automation engineers working in software-heavy or test automation roles.

Professional skills that affect performance

  • Analytical thinking: You need to isolate root causes, interpret system behavior, and test solutions without creating new failures.
  • Documentation discipline: Clear documentation helps teams maintain systems, pass audits, train operators, and recover from problems faster.
  • Communication: Automation projects often involve production staff, quality teams, IT, vendors, safety specialists, and executives. Engineers must explain risks and trade-offs clearly.
  • Attention to detail: Small mistakes in automation logic, wiring assumptions, test scripts, or access controls can create downtime, defects, or safety risks.
  • Teamwork: Few automation projects are solo efforts. Collaboration matters as much as technical ability when systems affect real operations.
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What is the typical career progression for an automation engineer?

Automation engineering careers usually progress from hands-on implementation to system design, project ownership, architecture, and leadership. Progression speed generally ranges between two to five years per level, depending on the employer, industry, project complexity, performance, and whether the engineer develops both technical and leadership skills.

Early roles focus on programming, testing, documentation, and troubleshooting. Senior roles require system-level judgment: choosing architectures, managing risk, mentoring others, coordinating vendors, and aligning automation work with business goals.

  • Junior Automation Engineer / Automation Engineer: At the 0-2 years stage, engineers typically support automation projects, program PLCs or scripts, test systems, troubleshoot basic issues, update documentation, and learn company standards under supervision.
  • Senior Automation Engineer: After 2-4 years, many engineers begin leading projects, designing more complex systems, reviewing work from junior engineers, coordinating with operations, and making decisions that affect reliability and scalability. Typical salary: $120,000-$150,000 annually.
  • Lead Automation Engineer / Automation Architect: These roles require deeper judgment and may involve advanced certifications or specialized expertise. Responsibilities often include defining automation strategy, selecting platforms, setting technical standards, and guiding interdisciplinary teams.
  • Automation Engineering Manager / Director of Automation: These senior leadership roles focus on planning, budgets, staffing, vendor relationships, cross-team coordination, and long-term automation roadmaps. Salaries often exceed $190,000 annually.

Automation engineers can also specialize instead of moving into management. Common paths include industrial automation, test automation, DevOps automation, robotics, process control, systems integration, technical consulting, and product management. The best path depends on whether you prefer hands-on technical depth, customer-facing problem-solving, or organizational leadership.

What Professionals Who Work as an Automation Engineer Say About Their Careers

  • Mordechai: "The automation engineering field offers remarkable job stability and competitive salaries, making it an excellent career choice. I've found that the demand for skilled professionals continues to grow exponentially, which provides me with confidence about my future prospects."
  • Casen: "Working as an automation engineer presents unique challenges that keep me engaged daily-from integrating new technology to troubleshooting complex systems. The dynamic environment has enhanced my problem-solving skills and kept my work exciting and fulfilling."
  • Briggs: "The opportunities for professional growth in automation engineering are vast, with numerous training programs and certifications available to advance my career. Over time, I've appreciated how this role has allowed me to continually evolve my expertise and take on leadership responsibilities."

Other Things You Should Know About Becoming an Automation Engineer

Is a bachelor's degree essential for aspiring automation engineers in 2027?

While a bachelor's degree in fields like computer science or engineering is often preferred, it's not always essential. Many companies in 2027 focus on skills and relevant experience, often accepting candidates with associate degrees, certifications, or equivalent training, especially in high-demand technology sectors.

What skills are crucial for automation engineers in 2027?

In 2027, automation engineers need proficiency in programming languages such as Python and Java, expertise in robotics and control systems, and strong problem-solving skills. Familiarity with machine learning and data analysis tools is also essential to handle complex automation tasks effectively.

Do automation engineers significantly benefit from certifications in 2027?

In 2027, while a bachelor's degree is often required, certifications can substantially boost an automation engineer's career prospects. Certifications like Certified Automation Professional (CAP) signify technical proficiency and can make candidates more attractive to employers by validating their expertise in modern automation technologies.

How has the job outlook for automation engineers changed in 2027?

In 2027, the job outlook for automation engineers is robust, driven by advancements in AI and IoT across various industries. An increasing number of sectors are investing in automation to improve efficiency, resulting in demand for skilled engineers, particularly in manufacturing, logistics, and software development.