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Systems engineer staff job growth summary. After extensive research, interviews, and analysis, Zippia's data science team found that:
The projected systems engineer staff job growth rate is 5% from 2018-2028.
About 18,200 new jobs for systems engineers staff are projected over the next decade.
Systems engineer staff salaries have increased 9% for systems engineers staff in the last 5 years.
There are over 47,454 systems engineers staff currently employed in the United States.
There are 304,494 active systems engineer staff job openings in the US.
The average systems engineer staff salary is $129,611.
| Year | # of jobs | % of population |
|---|---|---|
| 2021 | 47,454 | 0.01% |
| 2020 | 45,252 | 0.01% |
| 2019 | 49,059 | 0.01% |
| 2018 | 117,587 | 0.04% |
| 2017 | 114,665 | 0.03% |
| Year | Avg. salary | Hourly rate | % Change |
|---|---|---|---|
| 2026 | $129,611 | $62.31 | +3.4% |
| 2025 | $125,340 | $60.26 | +2.3% |
| 2024 | $122,502 | $58.90 | +1.2% |
| 2023 | $121,084 | $58.21 | +1.8% |
| 2022 | $118,994 | $57.21 | +2.4% |
| Rank | State | Population | # of jobs | Employment/ 1000ppl |
|---|---|---|---|---|
| 1 | District of Columbia | 693,972 | 1,074 | 155% |
| 2 | Virginia | 8,470,020 | 4,842 | 57% |
| 3 | Massachusetts | 6,859,819 | 3,920 | 57% |
| 4 | Maryland | 6,052,177 | 3,413 | 56% |
| 5 | Colorado | 5,607,154 | 2,690 | 48% |
| 6 | Delaware | 961,939 | 463 | 48% |
| 7 | Vermont | 623,657 | 295 | 47% |
| 8 | New Hampshire | 1,342,795 | 601 | 45% |
| 9 | Washington | 7,405,743 | 3,240 | 44% |
| 10 | Oregon | 4,142,776 | 1,828 | 44% |
| 11 | Rhode Island | 1,059,639 | 449 | 42% |
| 12 | Minnesota | 5,576,606 | 2,212 | 40% |
| 13 | Utah | 3,101,833 | 1,126 | 36% |
| 14 | Wyoming | 579,315 | 208 | 36% |
| 15 | Nebraska | 1,920,076 | 642 | 33% |
| 16 | Montana | 1,050,493 | 343 | 33% |
| 17 | North Dakota | 755,393 | 250 | 33% |
| 18 | Alaska | 739,795 | 239 | 32% |
| 19 | Arizona | 7,016,270 | 2,160 | 31% |
| 20 | New Jersey | 9,005,644 | 2,697 | 30% |
| Rank | City | # of jobs | Employment/ 1000ppl | Avg. salary |
|---|---|---|---|---|
| 1 | Annapolis | 9 | 23% | $128,625 |
| 2 | Rolling Meadows | 5 | 21% | $107,640 |
| 3 | Austin | 2 | 8% | $112,142 |
| 4 | Melbourne | 6 | 7% | $112,830 |
| 5 | Redondo Beach | 5 | 7% | $128,305 |
| 6 | Littleton | 3 | 6% | $103,368 |
| 7 | Poway | 3 | 6% | $126,556 |
| 8 | Huntsville | 10 | 5% | $118,388 |
| 9 | Santa Clara | 4 | 3% | $135,093 |
| 10 | Syracuse | 4 | 3% | $103,859 |
| 11 | Palmdale | 3 | 2% | $128,793 |
| 12 | Cambridge | 2 | 2% | $117,833 |
| 13 | Colorado Springs | 4 | 1% | $104,538 |
| 14 | Gilbert | 3 | 1% | $125,464 |
| 15 | San Diego | 7 | 0% | $126,522 |
| 16 | Austin | 3 | 0% | $116,345 |
| 17 | San Jose | 3 | 0% | $134,917 |
| 18 | Atlanta | 2 | 0% | $118,032 |
Seattle University
University of South Alabama
University of Minnesota - Duluth
New Jersey Institute of Technology
Weber State University
Southern Illinois University Edwardsville
California Polytechnic State University-San Luis Obispo
Bellingham Technical College
Duke University
California State University - East Bay
University of South Alabama
North Carolina State University
Stevens Institute of Technology
Massachusetts Maritime Academy
Worcester Polytechnic Institute
Julie Brandis: Oregon State University provides support in salary negotiation, also students can work with mentors who are familiar with company hiring practices and wage structures. If you have internship experience, that can help to boost your starting salary.
Christopher Misorski FASM: Maximizing salary potential at the start of your career is not a clear pathway generally. One way that you can be considered more valuable, and hence worth a better salary, is to have participated in a co-op or internship program with a company in your field. This experience gives employers some confidence that you were able to carry out assignments and thrive in a workplace environment. The employer that you worked for may be inclined to offer you a position upon graduation and you are now worth more because you have already proven to them your abilities. Even if they don’t offer you a job (no appropriate open position may be available) your ability to discuss your experiences with the HR recruiter or hiring manager at another company can instill confidence in your selection as a hire. Just remember, if you tell them you did a project, be prepared to explain it so it doesn’t appear you were just in the background of this project, just going along for the ride.
Thomas Congedo PhD: That comes from your ability to focus on technical product of the highest quality, always seeking to truly understand the customer’s needs. For example, often a customer will phrase a problem by stating the solution he or she assumes. Taking the time to respectfully draw out the thinking further can make you the customer’s hero, and this makes you the person likely to be selected for the challenging and most rewarded assignments.
Seattle University
Civil Engineering
Jhon Smith: Do not be afraid to ask questions to your supervisors (although do not take it to an extreme and become demanding—show initiative). You get the fundamentals of engineering at school and you are equipped to use them but it takes a few years to feel comfortable. Engineering is a profession of practice and it is only through practice that you best learn it.
Jhon Smith: Expand your network, join professional organizations and committees, become valuable in whatever company you work for, never stop learning, seek for opportunities for professional work, get your PE license. After these you will become more valuable naturally and could comfortably ask for a promotion or a salary increase because you’d know you deserve it.
Jhon Smith: Professional skills such as being able to communicate clearly, being flexible, open-minded, eager to take on challenges, adept and working with others and taking ownership of the projects tasks given to you. Staying grounded to the fundamental concepts you learn in school so every time you run a sophisticated piece of software to do design you must be able to use those fundamentals to check the results.
Sean Walker: Model Based Systems Engineering (MBSE) and Artificial Intelligence (AI) are going to be incredibly important in Systems Engineering over the next 3-5 years. MBSE has already become quintessential to the practice of Systems Engineering, which is why it has become a staple of our Master's and Doctoral programs. AI, of course, is changing almost every technical field and will be important to Systems Engineers as well. For Systems Engineers, the challenge will be understanding how and when to apply AI to solve systemic problems. Of course, both of these elements must be applied with an understanding of sociotechnical systems concerns. An engineer with the skills to apply MBSE and AI without losing sight of the humans in the system will be highly sought after.
Sean Walker: To maximize your salary, it is really essential to learn the tools and methods associated with Systems Engineering while also maintaining a sense of creativity. Employers are not only looking for engineers with the ability to apply specific tools but also the ability to think creatively to solve complex systems problems. I often encourage my students to maintain their creative hobbies so that they don't lose those skills. But, more immediately, gaining a graduate education in Systems Engineering can help any engineer increase their earning potential.
Sean Walker: I think the best advice for a new Systems Engineer, or really any engineer, is to be observant. One of the best things you can do when starting to apply the theoretical aspects that you've learned in school to your new career is to watch and listen to how experienced Systems Engineers practice in the field. This doesn't mean that you can't offer ideas or perspectives that are new, but that there will be challenges in your field that - due to the breadth of Systems Engineering - may not have been covered in your education.
Richard Davis: Engineering offers career opportunities across various industries, from technology and healthcare to infrastructure and environmental sustainability. With technological advancements and the increasing complexity of global challenges, such as climate change, food and clean water, and urbanization, engineers are in high demand to develop innovative solutions. For example, environmental engineers are crucial in developing sustainable solutions to reduce pollution and conserve resources. Engineering provides opportunities for creativity and problem-solving, making it a rewarding career choice for those who enjoy tackling complex problems. The global focus on sustainability and renewable energy presents exciting prospects for engineers to contribute to meaningful projects that positively impact society and the environment.
Mishah Salman Ph.D.: An underappreciated skill that I think will become more sought-after is the ability to validate computer-made decisions and their shortcomings. With the growing prominence of AI use in design, problem solving, and decision making, the engineering field will need experts to error-check decisions made using these technologies. Sometimes there are unexplored gaps that these technologies overlook, and sometimes there are biases or inappropriate assumptions baked into AI-based results. Humans are inherently imaginative and creative. We excel at picking up on things that computer algorithms may miss. Talented experts that recognize and address these issues will remain invaluable in the workforce. Another indispensable skill that is often overlooked in engineering is effective interpersonal communication. Whether in a teamwork context, a leadership role, or a client interaction, competent communication is crucial. This can take the form of conversation, live presentations, written correspondence, and beyond. People that hone their communication skills are often recognized, and tend to be the individuals that are promoted to more senior roles.
Mishah Salman Ph.D.: To maximize salary potential, I recommend growing your professional network and being flexible within your career. Attending professional gatherings and rubbing shoulders goes a very long way. It’s amazing how you can casually bump into some well-respected team leader that’s trying to fill an opening or glean information about a new project that needs fresh talent. Network with people in diverse fields and roles. You never know who knows who. Making a positive impression and having someone recognize your name down the line can go a very long way!
Mansooreh Mollaghasemi Ph.D.: Concurrent with building technical skills, they must build soft skills such as communication, teamwork, problem-solving, and leadership. These skills are often the differentiators between good and great engineers.
Megumi Usui: Even after obtaining a degree, it is crucial to recognize that continuous learning is a fundamental aspect of professional development in the workplace. One must cultivate an open-minded attitude and demonstrate a willingness to acquire new knowledge and skills at any time and in any context. Effective communication with colleagues and clients is essential for successful collaboration and project execution. It is important to understand that the professional environment is significantly different from the academic setting. In a company, the focus is delivering work that meets the expectations and standards set by the employer and satisfies the needs of clients, rather than merely fulfilling personal criteria. Furthermore, it is imperative to produce high-quality work consistently. Mediocre performance is unacceptable, and organizations will not hesitate to seek replacements if the work delivered does not meet their standards. Ensuring that your work is thorough, precise, and aligns with the company's objectives is critical for maintaining the position and advancing their career.
Michael Denn: 1. Become the expert in whatever you do. 2. Understand how your work fits into the bigger picture and keep that in mind when you do your work. 3. Keep learning! Your engineering degree is not the end of your education! 4. Take stretch assignments and opportunities whenever you can.
Michael Denn: The answers to this question are largely the same as the answer to question 1. However, here are some additional points: 1. Excel in your job. Become the person everyone goes to for whatever type of work you do. 2. Develop and maintain a career plan. Make sure your assignments and tasks align with your plan. When you have the opportunity to change positions, keep you plan in mind.
Dr. Elizabeth Adams PhD, PE: My personal recommendation for maximizing your salary potential is to play the long game. Focus on learning and becoming an expert in your field – find the area you enjoy working in and get really good at it. Maybe it’s bridge construction, maybe it’s electrical infrastructure, maybe it’s project management. Internships and co-op experiences during your college years are invaluable as they are excellent resume boosters and networking opportunities, and they can help you differentiate between areas you are more and less interested in.
Bellingham Technical College
Precision Metal Working
Kyle Miller: The world of CAD models, Automation, and A.I. assisted tools are outrunning a lot of peoples current understanding of the field. I think that it will be important in the coming years to become familiar with these concepts and how they can assist in fabrication/installation/inspection. I don’t think every trades-person needs to be proficient in every emerging tech, but understanding how these tools can benefit our current practices will make their inevitable implementation all the smoother.
Dr. Jimmie Lenz D.B.A.: A primary reason is the value placed on the quantitative nature of an engineering degree and the fact that this is primarily applied learning and skills, as opposed to the theoretical nature of some other areas of quantitative study. Being able to start working as soon as they start is very attractive to employers, as well as the broad knowledge of software, artificial intelligence, and data science that most engineers leave school with.
California State University - East Bay
Computer Systems Networking And Telecommunications
Dr. Bobby Roohparvar Ph.D.: *The anxiety of AI is likely to change the landscape of computer networking, is a real threat but in my opinion, it won't eliminate the need for human network engineers. The focus will likely shift towards more strategic tasks, complex problem-solving, and leveraging AI tools to improve network efficiency and security.*
*Here again, I will explain in more detail about the expectation and future of Comp. Network Eng.*
* 1. AI Augments, Not Replaces: While AI can automate some network tasks, like data analysis and basic troubleshooting, it won't replace the need for human network engineers. It will increase the productivity for sure; Complex problem-solving, strategic decision-making, and human judgment are still crucial in network management. AI will likely become a valuable tool that assists network engineers in their tasks, making them more efficient.*
*2. Growing Demand: Our reliance on technology and data is constantly increasing. Businesses and organizations need secure, reliable networks to function. This necessitates a skilled workforce to design, implement, maintain, and secure these networks. The demand for qualified network engineers is expected to grow in the coming years.*
*In our technology horizon, I can see the quantum internet coming and I can see the demand for network engineering accelerate.*
*3. Diverse Skillset: A strong foundation in computer networking equips you with a versatile skillset. You'll understand network protocols, security concepts, and troubleshooting methodologies. These skills are valuable across the IT field and can be applied to areas like cloud computing, data center operations, or even cybersecurity. Data Centers for AI are becoming a huge opportunity for Comp Network Eng.*
University of South Alabama
Electrical, Electronics, And Communications Engineering
Edmund Spencer: Look for jobs that have the highest technical content, and try to develop entrepreneurial skills early.
Daniel Armentrout: Expanded use of swarms of cheap sensors that communicate on multiple platforms for better understanding and control of complicated systems. Integrated use of artificial intelligence to increase our effectiveness in all aspects of our jobs.
Alexey Gulyuk: Being an Engineer means to be educated in many fields and, what is even more important, to be able to get out of your initial field of expertise and quickly learn new things. In essence, good Engineer has no limits or can push through the limits. Being an engineer is to be a highly-skilled individual that works on impactful projects that solve real-world problems. Currently, Engineering is in high demand and the field will continue growth with further advancements of the technologies like biotech, data science, renewable and non-conventional energy. Lastly, Engineering allows us to stay up-to-date and being able to follow the trends in diverse career opportunities.
Anthony Barrese: Pursue opportunities to broaden your experience across systems engineering, development, integration and test, field sales support and professional services positions. Generalist experience becomes invaluable with career advancement. Running a team is much more feasible for leaders who understand the process behind the work their reports deliver.
Anthony Barrese: There are many paths leading to increased salary potential. Rapidly developing a deep understanding of customer environments and needs can be one of those, but is often not sufficient on its own. Cultivating strong communication skills, building relationships across the business and distinguishing yourself as a leader will all position you for career advancement and the compensation increases that go along with that.
Anthony Barrese: The ability to listen to the customer is the most critical skill. Deeply understanding the needs of the end user ensures business success. In addition, digital engineering environments and digital twin technology in particular, will become increasingly important. These tools enable gains in efficiency and promote enhanced quality.
Mark Whalen P.E.: A system engineer designs, develops, and manages complex technical systems across a large variety of industries. This can include defining solutions to system-level problems, plus allocating requirements, technologies and team member tasking at a project level, as well as communicating complex ideas and systems to key stakeholders.
An entry-level system engineer will typically apply advanced mathematical techniques to solve system-level technical problems, as well as installing, testing, and troubleshooting complex operating systems
Mark Whalen P.E.: Many system engineers enjoy working across all technologies at a higher organizational level, and interacting with all types of technologists to manage and implement complex technical systems.
Many system engineers can feel challenged by their lack of depth of understanding of particular technologies compared to technical specialists.
Mark Whalen P.E.: There are many complex systems in existence or being developed that require knowledge and experience across many different technologies. Also, system engineering careers can often lead to managerial positions like becoming a project manager, operations manager or chief engineer.
Don Gelosh Ph.D.: Systems Engineering is a contact sport. As a systems engineer you are expected to be a leader.
Successful systems engineers are those who get out of their office and engage with other
engineers and technicians who work on complex systems. On any given day, systems engineers
could be working on a team, possibly leading that team, in one of the several phases of the
design and development effort. They may be working with stakeholders to determine their
requirements for the complex system or they may be working with validation test engineers to
determine if the complex system will satisfy the stakeholders needs.
While it would be expected that you are very knowledgeable in a few discipline areas, such as
electrical, mechanical or chemical engineering, you are not expected to be an expert in all
areas. However, you would be expected to know the experts in those fields and others and
how they should be involved in the overall development process. You would be expected to
understand the many processes of systems engineering and how each process contributes to
the success of the complex system.
You would also be expected to thoroughly understand any other systems and the operational
environment that will interface and interact with your system. As a systems engineer, you
would be expected to understand the big picture of the complex system.
Don Gelosh Ph.D.: Being a systems engineer provides you with many opportunities to learn and grow. Systems engineers
have the opportunity to learn all they can about a specific engineering discipline field of choice (i.e.,
electrical, mechanical, chemical, power, etc.). Systems engineers are also expected to learn in general
what engineers and technicians in other disciplines do on a daily basis. Systems engineers should talk to
other systems engineers about their daily activities as much as possible. Systems engineers should learn
how to lead people and manage resources; they should learn how to both lead and serve on teams.
Systems engineers should prepare themselves through education, training, and experience for
opportunities to grow and take on new responsibilities.
One dislike may be the long hours in dealing with the challenges of developing complex systems.
However, if you enjoy this type of work, the rewards of leading and managing the creation of successful
systems will be worth the effort it takes.
Don Gelosh Ph.D.: There is a great demand for those who can understand the big picture as well as knowing the
smallest detail in the development and delivery of complex systems. It is very important that
everyone involved in the engineering of complex systems works from the same requirements
and understands the intended operational environment. Systems engineers facilitate this
common understanding of the target system, interconnected systems and the operational
environment.
Today's advanced technology and systems that utilize that technology are increasingly
becoming more complex and more challenging to develop and deliver. This requires a different
type of engineer, one who has both in-depth technical knowledge and leadership skills.
Systems engineers who understand these requirements and can deliver successful complex
systems will always be in demand.