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Microsystems Engineers

Also called Process Engineer, Product Design Engineer, Project Engineer, or Radio Frequency Design Engineer (RF Design Engineer)

Updated · Source: O*NET 31.0

What Microsystems Engineers do

You design machines smaller than a grain of sand, like the motion sensor that knows when you turn your phone sideways.

Microsystems engineers work on MEMS, short for microelectromechanical systems. These are tiny moving machines built onto silicon chips: sensors that feel motion, pressure, or sound, and switches thinner than a hair. You research, design, develop, and test them.

Most of the work happens at a computer. You draw schematics (wiring and layout diagrams) and run simulation software to predict how a design will behave, what it will cost, and whether a factory can actually build it. You dig into why parts fail, how long they last, and how many come out usable. You also write a lot: specifications, parts lists, packaging requirements, and quality checklists other people will follow. Plans and schedules for projects often land on your desk too.

A day in the life

You start indoors at a desk in a climate-controlled office, clearing email and checking simulation results that ran overnight. A design has been failing sooner than expected, so you dig into the test data to find the cause. Mid-morning you sit with other engineers and designers, sketching a layout on a screen and arguing through trade-offs between size, cost, and performance. After lunch you write. Specifications, a parts list, a quality control checklist for the people who will build the device. Someone from the product side stops by with what a customer wants, and you think out loud about whether it is possible. Late in the day you update the project schedule and note what the team needs to decide next.

This could fit you if you…

  • ✓Like taking things apart in your head to understand how they work
  • ✓Enjoy math and physics enough to use them as everyday tools
  • ✓Take pride in careful documentation and accurate records
  • ✓Can explain a technical idea clearly to people who did not design it
  • ✓Are patient with problems that take weeks of testing to solve

You might not like it if you…

  • –Want to be on your feet and outdoors instead of at a screen indoors
  • –Dislike writing reports, specifications, and checklists
  • –Get frustrated when a design fails repeatedly before it works
  • –Would rather skip the years of engineering coursework in math and physics

How people get in

  1. 1Take all the math, physics, and computer courses you can in high school, and get comfortable with building or tinkering projects
  2. 2Earn a bachelor's degree, the typical entry education here, in a field like electrical and computer engineering, systems engineering, mechatronics and robotics, or general engineering
  3. 3Learn the software side: circuit and layout tools, simulation and modeling programs, and basic programming
  4. 4Get hands-on experience through an internship or a co-op (a longer paid work placement that is part of your degree), or through a university research lab that works on chips, sensors, or tiny devices
  5. 5Apply for entry-level engineering roles, and keep in mind that this career also goes by names like process engineer, product design engineer, or project engineer, so look for those in job listings
  6. 6Consider graduate study later if you want to go deeper into research and how these tiny devices actually work

Who tends to enjoy it

Curious

People who like figuring things out, research, science, and solving problems.

Hands-on

People who like building, fixing, working with tools, machines, plants, or animals.

Organizing

People who like keeping things accurate, orderly, and running on schedule.

Official task list

Microsystems Engineers research, design, develop, or test microelectromechanical systems (MEMS) devices. (O*NET)

  • Create schematics and physical layouts of integrated microelectromechanical systems (MEMS) components or packaged assemblies consistent with process, functional, or package constraints.
  • Investigate characteristics such as cost, performance, or process capability of potential microelectromechanical systems (MEMS) device designs, using simulation or modeling software.
  • Create or maintain formal engineering documents, such as schematics, bills of materials, components or materials specifications, or packaging requirements.
  • Conduct analyses addressing issues such as failure, reliability, or yield improvement.
  • Plan or schedule engineering research or development projects involving microelectromechanical systems (MEMS) technology.
  • Propose product designs involving microelectromechanical systems (MEMS) technology, considering market data or customer requirements.
  • Develop formal documentation for microelectromechanical systems (MEMS) devices, including quality assurance guidance, quality control protocols, process control checklists, data collection, or reporting.
  • Communicate operating characteristics or performance experience to other engineers or designers for training or new product development purposes.

A typical day involves

Email Face-to-face with people Indoors, climate controlled Part of a team

Skills that matter most

  • Reading Comprehension
  • Active Listening
  • Critical Thinking
  • Complex Problem Solving
  • Writing
  • Systems Analysis

What you'll need to know

  • Computers and Electronics
  • Engineering and Technology
  • Mathematics
  • Physics
  • Design

How much Microsystems Engineers make

The median pay for Microsystems Engineers in the U.S. is $122,930 a year ($59.10 an hour). Most earn between $66,810 and $189,950. (Bureau of Labor Statistics, May 2025)

Pay depends a lot on where you live: the median is highest in New Mexico ($162,070) and lowest in Kansas ($76,100).

Pay by state and territory
StateMedian payJobs
Alabama$152,5503,460
Alaska$142,390200
Arizona$102,2801,720
Arkansas$76,940820
California$130,85028,610
Colorado$132,5902,540
Connecticut$124,1102,430
Delaware$103,580—
District of Columbia$151,9203,560
Florida$105,4108,600
Georgia$112,2604,120
Guam$100,01080
Hawaii$122,8001,100
Idaho$130,970560
Illinois$111,9302,520
Indiana$120,8801,540
Iowa$103,0901,100
Kansas$76,100780
Kentucky$99,830500
Louisiana$99,0706,310
Maine$120,430590
Maryland$129,7707,340
Massachusetts$131,2602,850
Michigan$121,0007,700
Minnesota$108,8501,290
Mississippi$111,030480
Missouri$102,9801,850
Montana$97,470240
Nebraska$88,490300
Nevada$103,780870
New Hampshire$128,130610
New Jersey$132,4504,540
New Mexico$162,0702,190
New York$117,6005,760
North Carolina$112,4504,270
North Dakota$100,250220
Ohio$120,4707,000
Oklahoma$119,810860
Oregon$123,2202,030
Pennsylvania$108,9503,250
Puerto Rico$81,370890
Rhode Island$117,080380
South Carolina$110,4901,280
South Dakota$112,260110
Tennessee$96,6404,400
Texas$115,81010,820
Utah$110,3201,750
Vermont$126,550390
Virginia$148,1605,060
Washington$134,5703,580
West Virginia$118,800660
Wisconsin$110,360690
Wyoming$113,050110

Where to study for this

College programs that commonly lead to this career, and how many US colleges offer each.

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Source: O*NET 31.0 Database (USDOL/ETA), occupation 17-2199.06, used under CC BY 4.0 and modified by Whittle. Pay: BLS Occupational Employment and Wage Statistics (May 2025), SOC 17-2199. Outlook and entry education: BLS Employment Projections 2025–35. Program links: NCES CIP 2020 to SOC 2018 crosswalk. How we build these pages.