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Automation Engineer

Automation engineers design, program, and maintain automated control systems for industrial machinery.

Average salary
$122,930
Salary range
$66,810 – $189,950
Training time
4 years full time
Job market
As fast as average
6/10
Work-life balance
Good
7/10

Automation engineers design control systems for machines and production lines using sensors, motors, and programmable logic controllers. They write code for human-machine interfaces, commission equipment on factory floors, and troubleshoot complex operational faults. The work balances technical office design with hands-on machinery integration across manufacturing plants and logistics hubs. Pay and job figures cover engineers, all other, the official group that includes automation engineers. These professionals maintain industrial uptime through structured testing and practical engineering problem solving.

A workday

A day in the life

What does a workday really look like?

A standard weekday focused on software design, project coordination, and routine equipment testing.

  1. 8:00 AM - 8:30 AM
    Morning review

    Check plant operational logs and review open tickets for automated production cells.

  2. 8:30 AM - 10:00 AM
    PLC programming

    Write and test control routines for an upcoming packaging line modification.

  3. 10:00 AM - 11:00 AM
    Project coordination meeting

    Meet with mechanical designers and operations managers to review equipment build milestones.

  4. 11:00 AM - 12:30 PM
    HMI interface development

    Create graphic screens, alarm notifications, and diagnostic displays for machine operators.

  5. 12:30 PM - 1:15 PM
    Lunch break

    Midday rest away from the design office.

  6. 1:15 PM - 3:00 PM
    Plant floor testing

    Connect a laptop to control cabinets to verify sensor inputs and output signals.

  7. 3:00 PM - 4:30 PM
    Production data analysis

    Analyze machine cycle data to identify line stoppages and improve operational speed.

  8. 4:30 PM - 5:00 PM
    Documentation updates

    Record software version updates and file electrical panel change sheets.

Task breakdown

An intensive on-site shift dedicated to hardware checkout, safety circuit validation, and line startup.

  1. 7:00 AM - 7:45 AM
    Site safety briefing

    Put on protective gear and review electrical lockout procedures with the site team.

  2. 7:45 AM - 9:30 AM
    Field wiring check

    Verify physical wiring connections across sensors, motors, drives, and terminal blocks.

  3. 9:30 AM - 12:00 PM
    Robotics integration

    Validate communication protocols and safety signals between industrial robots and controllers.

  4. 12:00 PM - 12:45 PM
    Lunch break

    On-site meal before dry cycle testing.

  5. 12:45 PM - 3:00 PM
    Dry run execution

    Cycle automated machinery without product to confirm safety switches and emergency stops.

  6. 3:00 PM - 5:00 PM
    Live troubleshooting

    Diagnose drive faults and tune motor parameters while running product through the cell.

  7. 5:00 PM - 6:00 PM
    Startup documentation

    Document verified machine functions and list pending punch list items for the next shift.

Salary data

What do you really earn?

Salary by experience, sector and region.

Minimum
$66,810
Average
$122,930
Maximum
$189,950

Salary by region

RegionMinAvg.Max
National$66,810$122,930$189,950
California$74,950$130,850$212,130
Texas$64,430$115,810$177,780
Florida$59,490$105,410$167,950
Michigan$69,990$121,000$166,360
Maryland$60,780$129,770$195,190

Typical benefits

Health insurance
Medical coverage to assist with routine care, treatments, and prescriptions.
Retirement plan with employer match
Company-supported retirement savings accounts that match employee contributions.
Paid training on vendor control platforms
Sponsored training courses to build skills on major industrial software and hardware systems.
Travel pay or per diem for site work
Stipends or compensation to support travel expenses during on-site customer commissioning.

Pathways

Education pathways

Which paths lead to this profession?

Bachelor's degree

4 years full time

Bachelor's degree in electrical, mechanical or computer engineering

Employers usually look for programs accredited by ABET. Courses in control systems, electronics and programming are the most useful.

Costs
About $11,950 a year in average published tuition and fees at a public four-year college for in-state students, and $45,000 at a private nonprofit four-year college
Entry requirements
High school diploma or equivalent with strong math and science
High school subjects
Control systems, electronics, programming
Master's degree

1 to 2 years

Master's degree in electrical engineering, mechatronics or robotics

Optional for most jobs but helpful for advanced controls and robotics work. Some programs can be taken part time while working.

Entry requirements
A bachelor's degree in engineering
High school subjects
Advanced controls, mechatronics, robotics
Associate degree

2 years full time

Associate degree in electrical or automation technology, plus experience

Some automation engineers start as controls technicians and move up with experience. Employers may still require a bachelor's degree for engineer titles.

Costs
About $4,150 a year in average published tuition and fees at a public two-year college (in-district)
Entry requirements
High school diploma or equivalent
High school subjects
Electrical technology, automation technology

Profile

Skills & personality

Is this a good fit for you?

Hard skills

  • PLC programmingWriting, debugging, and modifying logic code across industrial controller platforms.
  • HMI and SCADA developmentDesigning operator touchscreens, supervisory control views, and system alarm structures.
  • Industrial roboticsIntegrating multi-axis robotic arms and programming kinematic paths on assembly cells.
  • Electrical schematics and control panel designDrafting layout prints, power distributions, and wiring diagrams for control enclosures.
  • Industrial networks and communication protocolsSetting up robust communication links across field instruments, drives, and controllers.
  • Machine safety standardsImplementing safety interlocks, light curtains, and safety controllers to protect workers.

Soft skills

  • Analytical problem solvingMethodically isolating complex electrical, hardware, and logic faults under time pressure.
  • TeamworkPartnering smoothly with mechanical fabricators, electricians, and production line workers.
  • CommunicationExplaining complex technical controls issues to operators, plant supervisors, and clients.
  • Attention to detailMaintaining accuracy across complex wiring prints, safety protocols, and software code.

Is this a good fit for you?

  • ✓
    Analytical mindsetApproaches complicated machinery issues through structured diagnostic logic.
  • ✓
    Detail orientationMaintains meticulous vigilance over electrical drawings, safety circuits, and code branches.
  • ✓
    AdaptabilityRemains calm and productive during urgent machine outages or unpredictable field situations.
  • ✓
    Collaborative natureWorks effectively alongside cross-functional trades, technicians, and engineering teams.
  • ✓
    Practical curiosityEnjoys examining physical machinery and discovering how software directs hardware motion.

Market

Job market & outlook

What does the market look like?

Openings per year
8,800
Trend
Growth
Growth
+3.7%
AI impact
4/10
AI tools help generate code, simulate systems and spot faults in machine data. Designing safe systems, commissioning equipment and solving problems on the floor remain human work.

Regional demand

Maryland
Active employment across regional production sectors and specialized facilities.
10/10
Michigan
Strong concentration of roles with automotive companies, machine builders, and system integrators.
9/10
California
Steady demand across advanced technology centers and manufacturing plants.
8/10
Florida
Ongoing openings across regional producers and automated distribution operations.
4/10
Texas
Regular hiring supported by broad industrial processing and logistics facilities.
4/10

Growth

Career paths

Where can this profession take you?

Vertical growth

  1. Junior controls engineer
    0-2 years

    Assists with basic PLC logic drafting, wiring checkouts, and minor equipment troubleshooting under senior guidance.

  2. Senior automation engineer
    5-8 years

    Leads automation projects, writes complex control architectures, and oversees field commissioning phases.

  3. Lead or principal controls engineer
    8+ years

    Sets company-wide technical standards, designs facility-scale automation strategies, and mentors engineering teams.

  4. Engineering manager
    10+ years

    Directs departmental engineering resources, manages capital project budgets, and supervises technical staff.

Horizontal move

  • Electrical engineer

    Focuses broadly on electrical power distributions, component specifications, and circuit designs across systems.

    View Electrical Engineer
  • Sales engineer

    Combines controls expertise with business development to propose custom automated equipment to industrial buyers.

  • Industrial engineer

    Optimizes facility layouts, manufacturing workflows, and production logistics to raise plant efficiency.

    View Industrial Engineer

Good to know

Practical info

Working hours
Automation engineers usually work full time, with extra hours during equipment startups and urgent breakdowns.
Remote work
Some design and programming can be done remotely, but testing, commissioning and troubleshooting require time on the plant floor, so most roles are on site or hybrid.
Physical requirements
The job splits between office work and plant floors, where engineers wear safety gear and work around moving machinery, noise and electrical panels; travel to customer sites is common for integrators.
Typical employers
Manufacturing plants, automation and systems integrator firms, machine builders and equipment makers, food, beverage and pharmaceutical producers, automotive and aerospace companies, warehousing and logistics companies.
Professional associations
International Society of Automation (ISA).

FAQ

Frequently asked questions

What does an automation engineer do on a daily basis?

An automation engineer designs, programs, and commissions control systems for machinery and industrial production lines. They write PLC logic, build operator interfaces, and link robotic arms with machine safety circuits. When equipment fails, they connect diagnostic tools to find electrical or software faults. They also evaluate operational data to raise output and maintain system documentation.

Is a college degree required to become an automation engineer?

Most employers require a bachelor's degree in electrical, mechanical, or computer engineering, though alternative routes exist. Some workers enter the field with a two-year associate degree in electrical or automation technology and advance through technical experience. However, companies frequently prefer candidates from four-year programs accredited by ABET when filling engineer positions. Advanced study remains an option for specialized robotics roles.

Can automation engineers work from home?

Automation engineers can perform parts of their job remotely, but fully remote arrangements are uncommon. Programming, schematic drafting, and data analysis can occur off site. However, commissioning new machinery, wiring input checks, and troubleshooting breakdowns demand hands-on presence around physical equipment. Because factory floors require direct verification, most employers provide hybrid schedules or require full-time on-site work.

Do automation engineers need a professional license?

A professional license is generally not required to work as an industrial automation engineer. Most manufacturing plants and machine builders do not mandate credentials. An engineer may choose to earn the Certified Automation Professional credential from ISA, while a Professional Engineer license is needed only when offering engineering designs directly to the public. These credentials remain optional for typical industrial employment.

What industries hire automation engineers?

Automation engineers work across a wide spectrum of production, assembly, and distribution environments. Typical employers include manufacturing plants, automotive and aerospace companies, and food, beverage, and pharmaceutical producers. Systems integrators and machine builders also hire engineers to program custom systems for clients. In addition, warehousing and logistics companies rely on these specialists to control high-speed sorting and handling machinery.

How will artificial intelligence change automation engineering?

Artificial intelligence will assist automation engineers rather than replace their core responsibilities. Modern software tools can generate basic program logic, simulate mechanical sequences, and detect anomalies within operating machine data. Even so, human engineers must still evaluate physical equipment on the floor, commission hardware, and ensure machine safety standards are met. Hands-on integration and critical physical troubleshooting remain distinctly human tasks.

Cover letter

Automation Engineer Cover Letter

View the example

In depth

All about automation engineer

The background, context and details.

Daily duties on the plant floor

Automation engineers design the control systems that run industrial machinery. They write code for programmable logic controllers. Precision matters. When an automated assembly cell halts unexpectedly during high-volume production, the engineer opens the control cabinet, inspects the field wiring, and analyzes software diagnostic logs to isolate the root failure. They integrate industrial robots, optical vision systems, and safety interlocks directly into manufacturing equipment to protect machine operators. Sensors detect parts. Production data analysis helps technical teams improve line speed and machine uptime.

Work settings and project travel

The work splits between office areas and plant floors. Engineers draft electrical schematics at computer desks. Testing happens on the floor. Travel is common. Systems integrator firms regularly dispatch their engineering staff to distant customer facilities, where specialists spend weeks commissioning custom equipment or integrating complex industrial robots into operating production lines. Most engineers work standard weekday daytime hours. However, planned shutdowns often push staff into long night shifts or weekend troubleshooting to restore stopped equipment. Machinery moves constantly. Operating around high voltage and moving mechanisms demands strict attention to personal safety gear.

Education routes for controls engineers

Most professionals enter the field with a four-year bachelor's degree in electrical or mechanical engineering. Employers look for ABET accreditation. Practical coursework in control systems and electronics establishes the knowledge needed to build reliable machine programs. An associate degree in electrical or automation technology provides another practical starting point, enabling graduates to work as maintenance technicians before gaining sufficient floor experience to design complex machine programs. Key technical capabilities include:

  • PLC programming
  • HMI and SCADA development
  • Industrial robotics
  • Machine safety standards

Industrial sectors using automated equipment

Automated machinery supports multiple industries. Automotive plants rely on automated work cells to fabricate vehicle frames. Food and pharmaceutical manufacturing facilities install automated machinery to maintain strict sanitary operating conditions while continuously recording detailed batch production information for internal quality audits. High-volume distribution centers depend on automated sorting equipment to process warehouse shipments rapidly. In every setting, equipment must share timing signals across industrial communication networks without dropping data packets.

Career growth across engineering roles

Careers typically begin in junior controls roles where new hires draft wiring diagrams and test simple code routines under supervision. Advancement follows practical floor competence. With several years of field experience, engineers move into senior roles to lead machine installations and direct system overhauls. Principal engineering positions and engineering management represent higher operational paths. Building an independent portfolio of verified programmable logic controller code and seeking out difficult plant commissioning assignments will prove your diagnostic abilities to manufacturing employers.