Engineering a Career at General Motors: Lessons from a Safety Leader

How one safety engineer built a thriving career at General Motors and what her journey reveals about modern engineering work.

By Medha deb
Created on

Designing Your Path: A Safety Engineer’s Career Journey at General Motors

Building a successful engineering career in the automotive industry today means navigating rapid technological change, global collaboration, and growing expectations around safety, sustainability, and innovation. The experience of a safety-focused engineer at General Motors (GM) offers a practical roadmap for how to thrive in this environment, especially for women and early-career professionals considering STEM paths.

From Classroom Curiosity to Automotive Engineering

Many engineers start with a simple fascination—how things work, why machines move, or what keeps people safe in complex systems. In the automotive sector, that curiosity can evolve into roles that directly affect millions of drivers worldwide, as companies like GM design and build vehicles under major brands including Chevrolet, Buick, GMC, and Cadillac.

For a safety engineer, the path often looks like this:

  • STEM foundations in math, physics, and basic engineering principles
  • Undergraduate degree in mechanical, electrical, automotive, or systems engineering
  • Specialization in safety, human factors, crashworthiness, or reliability
  • Internships or co-ops at manufacturing companies or research labs
  • Entry-level roles supporting design validation, testing, or field data analysis

Automotive companies like GM increasingly pair this technical training with focus on systems thinking and cross-functional collaboration, as modern vehicles integrate mechanical systems, electronics, and software into a single, safety-critical product.

Inside the Role: What a Safety Engineer at GM Actually Does

A safety engineer working at a global automaker operates at the intersection of design, regulation, customer expectations, and real-world performance. GM describes its mission as delivering safe, sustainable vehicles across global markets while moving towards an all-electric future. Within that mission, a safety engineer’s work typically includes:

  • Design review – Evaluating components and systems for potential failure modes and safety risks before production.
  • Testing and validation – Supporting crash tests, durability tests, and simulations to confirm that vehicles meet internal and regulatory standards.
  • Standards and compliance – Interpreting safety regulations and standards and helping design teams integrate them into vehicle programs.
  • Data analysis – Studying field data, warranty data, and customer feedback to identify potential safety concerns early.
  • Cross-functional coordination – Working with design, manufacturing, quality, and legal teams to address safety-related issues across the product lifecycle.

In a company that has committed to leading in safety and electrification, these responsibilities increasingly encompass advanced driver-assistance systems (ADAS), battery safety, and software reliability in addition to traditional mechanical safety concerns.

Why Safety Matters More Than Ever in the Automotive Industry

Modern vehicles are safer than previous generations by almost every measure, thanks in large part to sustained engineering focus on crashworthiness, restraint systems, and crash avoidance technologies. According to the U.S. National Highway Traffic Safety Administration (NHTSA), engineering advances like seat belts, airbags, and electronic stability control have dramatically reduced fatalities over the past decades.[NHTSA]

For a safety engineer at GM, that context translates into several priorities:

  • Crash protection – Structural design, crumple zones, and airbag systems that protect occupants in collisions.
  • Crash avoidance – Technologies such as automatic emergency braking, lane-keeping systems, and blind-spot detection.
  • Systems integration – Ensuring new electronic and software features do not introduce new hazards.
  • Electric vehicle safety – Thermal management, battery protection, and high-voltage system integrity.

GM has publicly emphasized vehicle safety as a core differentiator, with many models achieving top safety ratings and the company highlighting clean energy and safety-related innovation across its portfolio. Safety engineers are primary stewards of that commitment.

Working at a Global Automaker: Culture, Scale, and Opportunity

GM is one of the world’s largest automakers, operating in more than 100 countries and employing over 150,000 people globally. For an engineer, that scale creates unique opportunities and challenges.

AspectWhat It Looks Like for a Safety Engineer
Global reachExposure to safety requirements, driving conditions, and customer expectations across multiple regions.
Brand portfolioWorking on diverse vehicles—from everyday passenger cars to trucks, SUVs, and luxury models.
Cross-functional workFrequent collaboration with design engineering, manufacturing plants, quality organizations, and external suppliers.
Innovation focusParticipation in projects related to electrification, autonomous features, and next-generation safety systems.
Career mobilityAbility to move between roles—testing, systems engineering, program management, or leadership.

For many engineers, the attraction lies in contributing to products that are manufactured in high volume and have a tangible impact on transportation, jobs, and the broader economy.

Leadership Lessons from a Safety Engineering Career

As engineers advance in their careers at companies like GM, their day-to-day shifts from pure technical work to a mix of technical direction, communication, and leadership. Safety engineers who grow into leadership often share several habits:

  • Owning decisions – Safety calls often involve trade-offs. Effective leaders are comfortable making and defending data-driven decisions.
  • Communicating risk – Translating complex technical findings into language that program managers, executives, and non-engineers can act on.
  • Mentoring others – Bringing new engineers up to speed on safety processes, tools, and culture.
  • Challenging assumptions – Asking what could go wrong, especially when timelines are tight and pressure is high.
  • Driving continuous improvement – Using lessons from testing, field data, or incidents to strengthen future designs.

GM’s broader corporate push toward electrification, software-defined vehicles, and advanced safety systems requires safety leaders who can see beyond a single component or subsystem to the entire vehicle and its lifecycle.

Women in Automotive Engineering: Opportunities and Barriers

Automotive engineering has traditionally been male-dominated, but the representation of women in STEM fields has been gradually improving. According to data summarized by the U.S. National Science Foundation, women have increased their presence in engineering and related technical occupations over the last two decades, though they remain underrepresented compared to their share of the overall workforce.[NSF]

In this context, a woman building a career as a safety engineer at GM brings visibility and representation that can encourage others. Organizations like GM publicly highlight diversity, equity, and inclusion as strategic priorities, linking diverse teams to better design decisions and innovation.

Common themes in women engineers’ experiences at large manufacturers include:

  • Seeking visible projects – Taking on assignments that showcase technical contributions and build credibility.
  • Finding mentors and sponsors – Both male and female leaders who advocate for growth opportunities.
  • Navigating bias – Addressing subtle assumptions about capabilities, interests, or leadership potential.
  • Building networks – Participating in internal employee resource groups and external professional societies.

Stories of women succeeding in safety engineering at GM offer concrete examples that young students can model when considering whether engineering is “for them.”

Balancing Intense Work with a Real Life

Engineering in a global automotive company is demanding. Product timelines, regulatory deadlines, and launch schedules can compress work into intense periods, especially when safety issues arise late in development. Yet sustained performance requires realistic boundaries and strategies for work-life balance.

Engineers who succeed long-term often:

  • Use peak energy hours wisely – Scheduling deep technical work during their most focused times of day.
  • Embrace team-based problem solving – Sharing the load instead of being the sole “expert” on every issue.
  • Set clear expectations – Communicating realistic timelines and escalation plans with program leaders.
  • Protect non-work time – Committing to personal activities, whether that is family time, hobbies, or exercise.

GM and other large manufacturers increasingly offer flexible work arrangements for roles that do not require constant presence on the plant floor, along with wellness and support programs connected to broader sustainability and social responsibility commitments.

Skills Future Safety Engineers Need Most

Technical degrees open the door, but the day-to-day work of a safety engineer requires a broader mix of capabilities. Based on current industry trends and the direction of companies like GM, the most valuable skills include:

  • Core engineering fundamentals
    Solid grounding in mechanics, materials, electronics, and systems engineering.
  • Data and software literacy
    Ability to interpret test data, use simulation tools, and understand how software affects safety-critical systems.
  • Regulatory awareness
    Familiarity with safety regulations, test protocols, and rating systems in key markets.
  • Risk analysis
    Comfort with tools such as Failure Modes and Effects Analysis (FMEA) and fault tree analysis.
  • Communication and influence
    Clear writing, concise presentation, and the confidence to raise safety concerns early.
  • Adaptability
    Willingness to learn new technologies, from battery systems to automated driving features, as GM and peers invest heavily in these areas.

These skills help engineers remain relevant as the industry moves toward electrification and software-defined vehicles while still preserving rigorous safety culture.

How Students and Early-Career Engineers Can Prepare

Students inspired by stories of safety engineers at GM can start building a foundation long before they enter the workforce. Practical steps include:

  • Coursework choices
    Prioritize classes in dynamics, controls, materials, automotive systems, and human factors.
  • Hands-on projects
    Join clubs like Formula SAE, robotics teams, or crashworthiness research groups to gain real-world experience.
  • Internships or co-ops
    Target roles in manufacturing, testing, or engineering at companies involved in vehicles or safety-related products.
  • Professional organizations
    Participate in groups such as SAE International or the Society of Women Engineers to build networks and stay current.
  • Portfolio building
    Document projects where you applied engineering to solve safety or reliability problems—these are directly relevant to roles at automakers.

When candidates can articulate how their experiences relate to a company’s strategic direction—such as GM’s emphasis on safety, electrification, and sustainability—they stand out in interviews.

Frequently Asked Questions

Q: What degree is best for becoming a safety engineer in the automotive industry?

A: Most safety engineers hold a bachelor’s degree in mechanical, electrical, or systems engineering. Some also pursue graduate study in safety engineering, human factors, or reliability. Strong coursework in dynamics, materials, controls, and systems design is particularly valuable.

Q: Is automotive safety engineering a stable career path?

A: Yes. Automakers like GM operate in a highly regulated environment where safety is non-negotiable and central to brand reputation. As vehicles add more electronics, software, and advanced driver-assistance features, demand for engineers who can manage system-level safety is expected to remain strong.

Q: How does the shift to electric vehicles change a safety engineer’s work?

A: Electric vehicles introduce new safety considerations, such as high-voltage architecture, battery thermal management, and crash performance of battery packs. GM’s large investments in EVs and battery platforms mean safety engineers now collaborate closely with battery, electronics, and software teams in addition to traditional crash and restraint specialists.

Q: What is it like to work for a large automaker compared to a startup?

A: At a company like GM, safety engineers benefit from formal processes, established test facilities, and global reach. Startups may offer broader responsibilities and faster decision-making but often with fewer resources and less mature safety systems. The choice depends on personal preferences for structure, risk, and impact scale.

Q: How can women entering engineering build confidence in a male-dominated field?

A: Confidence grows through preparation and visible contributions. Seeking mentors, volunteering for high-visibility projects, joining professional networks, and learning to communicate clearly about your work are all powerful steps. Many large employers, including GM, sponsor employee resource groups and development programs specifically aimed at supporting women in technical roles.

References

  1. About GM: Our company — General Motors Company. 2025. https://www.gm.com/company/about-us
  2. Driving Big Change: Our Impact — General Motors Company. 2024. https://www.gm.com/impact/driving-big-change
  3. General Motors SWOT Analysis 2025 — Strategic Management Insight. 2025. https://strategicmanagementinsight.com/swot-analyses/general-motors-swot-analysis/
  4. General Motors (GM): Navigating the Road Ahead in a Transformative Automotive Landscape — PredictStreet/FinancialContent. 2025-10-04. https://markets.financialcontent.com/1discountbrokerage/article/predictstreet-2025-10-4-general-motors-gm-navigating-the-road-ahead-in-a-transformative-automotive-landscape
  5. Mission Statement, Vision, & Core Values (2025) of General Motors — DCF Modeling. 2025. https://dcfmodeling.com/blogs/vision/gm-mission-vision
  6. U.S. Operations: Fueling America’s Economy — General Motors Company. 2024. https://www.gm.com/company/us-operations
  7. Traffic Safety Facts & Vehicle Safety Research — National Highway Traffic Safety Administration. 2023. https://www.nhtsa.gov/road-safety/vehicle-safety
  8. Women, Minorities, and Persons with Disabilities in Science and Engineering — National Science Foundation. 2023. https://ncses.nsf.gov/wmpd
Medha Deb is an editor with a master's degree in Applied Linguistics from the University of Hyderabad. She believes that her qualification has helped her develop a deep understanding of language and its application in various contexts.

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