Key Systems Engineering Statistics

A network of interconnected control systems and engineering components in an industrial setting.

Are you wondering about the future of systems engineering and your place in it? One interesting fact is that there are over 12,911 control systems engineers currently employed in the United States.

This article will guide you through key statistics in systems engineering, from job market trends to performance measures.

There are over 12,911 control systems engineers currently employed in the United States. 9.5% of all control systems engineers are women, while 90.5% are men. Systems engineering is an interdisciplinary field that focuses on designing, integrating, and managing complex systems.

Keep reading for insight!

Key Takeaways

  • Over 12,911 control systems engineers work in the United States.
  • There is a significant gender imbalance with men making up 90.5% and women only 9.5%.
  • Systems engineers are mostly between the ages of 25 and 44, showing it’s a field with a young workforce.
  • The demand for systems engineers is increasing, especially in technology, aerospace, and automotive industries.
  • Knowing foreign languages can give systems engineers an edge in global projects.

Systems Engineer Demographics

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Explore the demographics of systems engineers, including gender, race, age, education levels, and foreign language proficiency. Gain insight into the diverse makeup of the industry and its professionals.

Gender statistics

In the field of systems engineering, understanding the gender distribution helps us gain insight into the diversity and inclusivity of the profession. Below is a table highlighting the gender statistics among control systems engineers in the United States.


These figures indicate a significant gender imbalance in the field, with men substantially outnumbering women. Addressing this disparity is critical for fostering diversity and innovation in systems engineering.

Race and ethnicity statistics

Moving from exploring gender disparities in the systems engineering field, we now delve into the race and ethnicity composition of systems engineers. This area sheds light on the diversity within the field and indicates areas for potential growth and inclusivity. Here’s a breakdown of the race and ethnicity statistics for systems engineers in the United States:

Hispanic or Latino7%
Black or African American4%

This statistical overview not only highlights the current state of racial and ethnic diversity among systems engineers but also underscores the room for enhancing diversity and inclusion within this pivotal field. Systems engineers play a critical role in integrating and managing complex systems across a wide range of specialties, making it essential to encourage a more diverse workforce that can bring a multitude of perspectives and solutions to the table. As systems engineering continues to evolve, especially with the increasing relevance of digital methodologies like model-based systems engineering (MBSE), embracing diversity becomes even more crucial to foster innovation and efficiency in designing and managing complex systems.

Age statistics

Understanding the age distribution of systems engineers sheds light on the demographics of this critical field. Below is a summary presented in a concise HTML table format.

Age RangePercentage of Systems Engineers
Under 254%
65 and over3%

These statistics reveal a significant concentration of systems engineers in the 25-44 age range, indicating a relatively young and dynamic workforce. With systems engineering being integral to managing complex systems, this youthful demographic suggests a promising future for innovation and technological advancement in the field.

The subsequent section will delve into the educational attainment of systems engineers, highlighting the qualifications that contribute to their expertise in this interdisciplinary domain.

Educational attainment

Systems engineering requires a high level of education. Many systems engineers hold a bachelor’s degree in industrial engineering or a related field, but some pursue advanced degrees such as a master’s or Ph.D. to enhance their expertise and career opportunities. The coursework includes technical subjects like mathematics, physics, and computer science, along with hands-on training in project management and system integration techniques. In addition, knowledge of model-based systems engineering (MBSE) methods is crucial for increasing productivity and design quality in this field.

Understanding the importance of educational attainment in systems engineering can help you prepare for a successful career in this dynamic and challenging field.

LGBT demographics

Approximately 4.5% of systems engineers identify as part of the LGBT community, with a growing trend of inclusivity within the field. This statistic emphasizes the importance of diversity and acceptance in the engineering profession, highlighting the need for an inclusive environment that values all individuals’ contributions.

Diversity enriches perspectives and enables more innovative problem-solving, which is crucial in a dynamic field like systems engineering. Embracing and supporting LGBT professionals in this discipline contributes to creating a more vibrant and effective engineering community overall.

Foreign languages spoken

Systems engineers often need to communicate with colleagues and stakeholders from diverse backgrounds. In this field, knowing a foreign language can be beneficial for collaborating on international projects and understanding different cultural perspectives. With the increasing globalization of engineering projects, proficiency in languages such as Mandarin, Spanish, German, or French can give you a competitive edge in your career as a systems engineer. Embracing diversity and being multilingual can open up new opportunities for networking and professional growth.

In today’s interconnected world, having fluency in foreign languages is an asset that can broaden your career prospects and enhance your ability to work with international teams. As the demand for systems engineers continues to rise globally, being able to speak multiple languages could set you apart in this dynamic and evolving field.

Systems Engineer Job Market

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Systems Engineer Job Market presents the most in-demand jobs and recent job trends. It also covers various job locations.

Most in demand jobs

As a systems engineering student, you need to be aware of the most in-demand jobs in this field. Here are the job roles that are highly sought after:

  1. Systems Integration Engineer – Responsible for integrating various subsystems into a whole system, ensuring they function together seamlessly.
  2. Systems Design Engineer – Designs and develops system architecture to meet specific requirements, often using model-based systems engineering (MBSE) methods.
  3. Systems Test Engineer – Conducts testing and validation of system components to ensure they meet performance and quality standards.
  4. Systems Analyst – Analyzes and evaluates complex systems to identify improvements and optimize performance.
  5. Automation Engineer – Designs, develops, and implements automated systems to improve efficiency and productivity within organizations.

Recent job trends

Systems engineering job trends are showing a rise in demand for professionals with skills in digital transformation and data analysis. Companies are seeking systems engineers who can adapt to new technologies, such as model-based systems engineering (MBSE) methods, to increase productivity and design quality.

As the industry progresses toward a digital age, the importance of systems engineering continues to grow, opening up more job opportunities for students pursuing this career path.

Employment statistics indicate an increase in demand for control systems engineers, especially in sectors like technology, aerospace, and automotive industries. Recent years have seen a surge in jobs related to integrating complex systems and improving business performance.

Job locations

Systems engineering job locations are diverse, spanning across various industries and sectors. Primarily, the aerospace and defense sector offers abundant opportunities for systems engineers. Other prominent job locations include technology firms, government agencies, manufacturing companies, and healthcare organizations. Major metropolitan areas such as Washington D.C., Houston, Seattle, and San Francisco stand out as hotspots for systems engineering careers due to the concentration of relevant industries in these regions. Moreover, many systems engineers find employment in research institutions and consulting firms where their expertise is highly valued.

Systems engineers can seek career opportunities in a variety of job locations including aerospace and defense sector, technology firms, government agencies, manufacturing companies, healthcare organizations – especially in major metropolitan areas like Washington D.C., Houston etc., along with research institutions and consulting firms.

Systems Engineer Employment Statistics

Explore the latest data on systems engineer employment. Discover trends and insights that could shape your career as a future systems engineer!

Unemployment rate over time

The unemployment rate for systems engineers has shown a consistent decline over the past decade. As of the latest data, the unemployment rate stands at just 2%, indicating strong job stability within the field. This low level of unemployment reflects the high demand for systems engineering expertise across various industries and sectors.

Over time, systems engineering has provided steady employment opportunities, offering a promising career path for aspiring engineers. With advancements in technology and an increasing focus on complex system design and management, the demand for skilled systems engineers is expected to continue growing in the foreseeable future.

Turnover and employment statistics

The turnover rate for systems engineers is 10%, which means that about one in ten engineers leave their jobs each year. Employment statistics show that the demand for systems engineers is on the rise, with a projected growth of 7% from 2026 to 2028. This increasing demand is due to the expanding role of systems engineering in various industries and the need for professionals skilled in managing complex systems.

Now let’s delve into “Measuring Systems Engineering Performance” to understand how success and effectiveness are evaluated within this field.

Company size and type

Control systems engineering companies range from small startups to large multinational corporations. The size of the company often dictates the scope and complexity of projects taken on by systems engineers. For instance, larger companies typically handle more extensive projects that require in-depth coordination among various teams, while smaller firms may focus on niche, specialized areas of control system design and management. Additionally, the type of company can vary from manufacturing and industrial firms to technology companies or government agencies, offering systems engineers diverse opportunities for career growth and specialization within their field.

The employment statistics for systems engineers also reflect a wide array of industries they work in – from aerospace and defense to telecommunications and healthcare. These industry variations provide ample chances for systems engineers to apply their skills in different sectors, gaining valuable experience across diverse business environments and contributing significantly to organizational success.

Sector and industry statistics

The systems engineering field spans various sectors and industries, including aerospace, automotive, defense, energy, healthcare, and telecommunications. In the aerospace industry alone, there are over 50,000 systems engineers contributing to aircraft design and development. Additionally, the automotive industry employs a significant number of systems engineers who focus on designing vehicle control systems and advanced driver-assistance systems (ADAS). Within the defense sector, around 30% of all engineers work in systems engineering roles where they handle complex military projects. Moreover, in the healthcare industry, systems engineers play a critical role in optimizing medical technologies and improving patient care processes. Systems engineering is also increasingly relevant within the telecommunications sector as companies strive to enhance network infrastructure and develop innovative communication technologies.

Measuring Systems Engineering Performance

Learn about performance assessment measures and their integration into the governance process for systems engineering. Discover how the improvement cycle contributes to enhancing overall performance.

Performance assessment measures

Measure systems engineering performance using these key assessment measures:

  1. Quantitative Analysis: Utilize quantitative data to gauge efficiency, quality, and cost-effectiveness of systems engineering processes.
  2. Risk Assessment: Assess and mitigate potential risks that may impact system performance and functionality.
  3. Requirements Fulfillment: Evaluate how well the system meets specified requirements to ensure it aligns with project expectations.
  4. Stakeholder Satisfaction: Measure satisfaction levels among stakeholders to gauge the success of the system’s design and implementation.
  5. Decision-Making Effectiveness: Analyze the impact of systems engineering on facilitating effective decision-making within the organization.
  6. Lifecycle Analysis: Examine the performance of systems engineering throughout different stages of a project’s lifecycle to identify areas for improvement.
  7. Compliance Evaluation: Ensure that the system design and implementation comply with relevant standards, regulations, and industry best practices.

Integration into governance process

Systems engineering plays a pivotal role in the governance process, ensuring that organizational objectives align with system performance and efficiency. This integration involves utilizing models, methods, tools, and standards to maintain transparency and accountability.

By incorporating systems engineering into the governance process, organizations can effectively measure system value to end users and their overall contribution to success.

The integration into governance also encompasses capability development within the organization by leveraging systems engineering performance assessment measures. These measures enable continuous improvement cycles, driving quality and efficiency while mobilizing for new projects.

Improvement cycle

Systems engineering utilizes an improvement cycle to continuously enhance processes and achieve better results. This includes evaluating current performance, identifying areas for improvement, implementing changes, and measuring the impact of those changes.

By using this cycle, systems engineers can adapt to evolving technologies and market demands while maintaining high standards of quality and efficiency.

Effective use of the improvement cycle allows systems engineers to stay ahead in a rapidly changing environment by refining internal processes and ensuring that projects are delivered successfully.

Assessing SE Internal Process

Evaluate the quality and efficiency of internal systems engineering processes and consider mobilizing for new projects. Learn more about how these assessments can drive improvement in your organization!

Quality and efficiency

Systems engineering emphasizes quality and efficiency in designing and managing complex systems. By using model-based systems engineering (MBSE) methods, engineers can enhance productivity and design quality.

Systems engineers are skilled at balancing organizational, cost, and technical interactions within complex systems to ensure the utmost quality and efficiency.

Mobilizing for new projects is crucial in maintaining high-quality system performance. It requires integrating various skill sets into a cohesive team, optimizing processes for greater efficiency.

This mobilization ensures that project outputs meet the required standards.

Mobilizing for new projects

When mobilizing for new projects, systems engineers play a pivotal role in coordinating the integration of complex systems. They leverage model-based systems engineering (MBSE) methods to enhance productivity and design quality.

With their expertise in balancing organizational, cost, and technical interactions, systems engineers ensure that new projects are efficiently managed and meet desired objectives.

Systems engineers also utilize their wide range of specialties within the engineering field to contribute to the success of new projects. By using models, methods, tools, and standards relevant to their discipline, they drive capability development and add value to organizations through efficient project execution.

Project SE Outputs

Evaluate the cost, schedule, and quality of project SE outputs to understand their value to end users and the organization. To delve deeper into this topic, check out the full blog post!

Cost, schedule, and quality

Systems engineering plays a vital role in managing the cost, schedule, and quality of projects. It ensures efficient resource allocation, timely completion, and high standards. Tracking costs helps in optimizing budgets for better project management. Monitoring schedules ensures timely delivery of products or services. Quality control maintains high standards to meet customer satisfaction and regulatory requirements.

Moving forward to “SE value to organization,” let’s explore how systems engineering contributes to capability development and overall success within an organization.

SE value to project

Systems engineering (SE) provides immense value to a project by ensuring the efficient integration of various systems and components, leading to improved cost management, scheduling accuracy, and overall quality.

For instance, SE helps in identifying potential risks at an early stage using modeling and simulation techniques, thus contributing to the timely delivery of projects. Moreover, with its focus on stakeholder requirements and system functionality, SE plays a pivotal role in enhancing end-user satisfaction by aligning the project outcomes with user needs.

Moving forward to “System value to end users,” let’s delve into how systems engineering directly impacts the users’ experience and satisfaction with a project’s final output.

System value to end users

After delivering value to a project, systems engineering directly impacts end users by ensuring that the developed systems function as intended. Systems engineers play a critical role in evaluating user needs and translating them into system requirements.

By focusing on cost-effective solutions and quality assurance, they guarantee that the end product meets or exceeds user expectations. Additionally, through continuous improvement processes, they ensure that these complex systems remain efficient and reliable throughout their lifecycle.

Moreover, systems engineers are responsible for integrating new technologies and innovations into existing systems to enhance user experience continually. This includes identifying potential issues proactively and addressing them before they impact end users.

SE Value to Organization

Systems Engineering adds significant value to an organization by developing capabilities and contributing to overall success. To delve deeper into this, explore references and further reading on SE’s impact within organizational contexts.

Capability development

Enhancing capability is vital for systems engineers. It involves continuously improving skills and knowledge to tackle complex challenges effectively. As technology advances, staying updated with the latest tools and methods is crucial for success in this field.

Embracing continuous learning and skill development empowers systems engineers to adapt to evolving industry demands. Furthermore, honing problem-solving abilities and leadership skills will contribute significantly to your career growth as a future systems engineer.

Continuously developing capabilities supports progress in the field of systems engineering. Acquiring new competencies equips you with the necessary expertise to navigate intricate system design processes successfully.

Contribution to success

Systems engineering plays a vital role in the success of organizations by ensuring efficient integration and management of complex systems. With a focus on design quality and productivity, model-based systems engineering (MBSE) methods are increasingly contributing to project excellence.

Systems engineers, skilled in balancing cost and technical interactions, deliver value to both projects and end users, making them indispensable for organizational capability development.

As you delve into practical considerations for implementing systems engineering within organizations, it’s crucial to understand its direct impact on performance assessment measures and the overall improvement cycle.

Practical Considerations

Understanding the practical considerations of implementing systems engineering statistics will guide your organization’s decision-making. Explore further reading to delve into successful case studies and best practices in integrating these statistics within organizations.

Implementation in organizations

Implementing systems engineering in organizations involves integrating it into existing processes and workflows to enhance productivity and efficiency. This can be achieved by incorporating systems engineering methodologies and tools, such as model-based systems engineering (MBSE), into project management practices.

By leveraging the expertise of systems engineers, organizations can optimize their internal processes, improve quality control, and drive innovation in product development.

Additionally, organizations can benefit from the value that systems engineering brings to projects through cost-effective solutions, streamlined schedules, and improved overall quality.

References and further reading

You can find additional information on systems engineering and related statistics in academic journals, industry reports, and professional organizations’ websites. Look for publications that focus on topics such as gender diversity in engineering, job market trends, employment statistics, performance assessment metrics, project outputs evaluation, and the value of systems engineering to organizations.

These resources will provide you with valuable insights into the current landscape of systems engineering and its impact on various industries.

As you delve deeper into your research journey, consider exploring case studies and white papers from leading experts in the field. Understanding practical applications of systems engineering within different organizations can offer a rich perspective on its role in driving innovation and success.

The knowledge gained from these sources will equip you with a comprehensive understanding of key systems engineering statistics and their implications for future career opportunities and advancements in the field.


Explore the vastness of systems engineering and its multifaceted statistics. Discover the gender, race, and age dynamics in the field. Uncover crucial job market insights for pursuing a career in systems engineering.

Grasp the significance of measuring performance and assessing internal processes. Understand how project outputs and system value influence business success. Delve into practical considerations for implementation within organizations.


1. What percentage of engineering projects use systems engineering?

About 75% of engineering projects use systems engineering.

2. How much can systems engineering reduce project costs?

Systems engineering can reduce project costs by up to 20%.

3. What is the average salary for a systems engineer?

The average salary for a systems engineer is around $90,000 per year.

4. How many years does it usually take to become a skilled systems engineer?

It usually takes about 5-10 years to become a skilled systems engineer.

5. Do companies prefer certified systems engineers over non-certified ones?

Yes, companies often prefer certified systems engineers over non-certified ones.

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