The United States engineering industry remains a cornerstone of the nation’s technological and economic infrastructure. In 2025, the sector demonstrates robust growth, with the global engineering services market valued at $3.42 trillion in 2024 and projected to reach $4.72 trillion by 2030 (5.7% CAGR). The US market accounts for a substantial share, fueled by federal infrastructure investments, advanced manufacturing, and demand for specialized services in semiconductors, robotics, and sustainability. Key findings highlight steady job growth, strong wage trends, and expanding opportunities in emerging disciplines. Challenges include talent shortages, return-to-office mandates, and the need for continuous skill development to match rapid technological change.
INTRODUCTION
Research Scope & Methodology
This report provides an in-depth analysis of the US engineering industry in 2025, covering market dynamics, growth patterns, workforce trends, competitive landscape, and future outlook. The findings are based on data from government agencies, market research firms, and industry studies including Grand View Research, Deloitte, BLS, and Polaris Market Research.
Objectives
Analyze market size and growth trends
Identify key sectors driving industry expansion
Examine workforce dynamics and employment patterns
Profile major industry players
Assess technological and market disruptions
Outline challenges facing the industry
Review the educational landscape supporting engineering talent
INDUSTRY OVERVIEW
Definition & Scope
The engineering industry in the US spans consulting, design and development, construction management, maintenance, and specialized services. Disciplines include civil, mechanical, electrical, chemical, aerospace, software, environmental, and emerging fields such as bioengineering and semiconductor engineering.
Industry Structure
Key service categories:
Design & Development
Consulting Services (largest segment, 19.2% revenue share in 2024)
Construction & Project Management
Maintenance & Support
Specialized Engineering Services
Technology Integration Services
Economic Significance
Engineering underpins infrastructure development, innovation, and manufacturing competitiveness, supporting industries from energy and healthcare to aerospace, defense, and telecommunications.
MARKET SIZE & GROWTH
Global Market
$3.42T in 2024 → $4.72T in 2030 (5.7% CAGR, 2025–2030)
Alternative estimates: $1.15T in 2025 → $1.32T in 2029 (3.5% CAGR), reflecting narrower definitions of “engineering services.”
US Market
Strong growth across civil, mechanical, electrical, and software engineering.
Certain segments project CAGR up to 8.75% through 2032 (Polaris).
Growth Drivers
Federal infrastructure spending (Infrastructure Investment & Jobs Act)
Favorable financing conditions from lower inflation/interest rates
Private and public investment in construction, utilities, and manufacturing
Demand for specialized engineering in semiconductors, robotics, and AI
Digital transformation across industries
KEY SECTORS & APPLICATIONS
Primary Disciplines
Civil Engineering: Infrastructure, transportation, water management, urban planning.
Electrical Engineering: Power, telecom, electronics, renewable energy, smart grids.
Mechanical Engineering: Manufacturing, aerospace, automotive, energy; growth from automation and advanced manufacturing.
Software & Systems Engineering: Embedded systems, software development, cybersecurity, systems integration.
Emerging Specializations
Environmental Engineering: Renewable energy, waste management, remediation.
Bioengineering & Biotechnology: Medical devices, pharma, biotech innovations.
Semiconductor Engineering: Critical to domestic chip manufacturing and supply chain resilience.
WORKFORCE & JOB MARKETS
Employment Statistics
~2.1 million engineers employed in 2024 (BLS, architecture & engineering occupations).
~195,000 annual openings projected (growth + workforce replacement).
Job Growth Areas
Information security analysts: +32% growth
Software developers: +26% growth
Manufacturing engineers: 30,000+ new jobs by 2029
Salaries & Compensation
Median annual wage: $97,310 (May 2024), ~2× national average.
Engineer salaries up ~7% in five years; compensation remains key to recruitment/retention.
Work Arrangements
61% of engineers fully on-site
26% hybrid
13% fully remote
Most large firms require ~3 days/week in-office, with return-to-office mandates increasing.
In-Demand Skills
Semiconductor engineering
Robotics and automation
Advanced manufacturing
Cybersecurity
AI & machine learning
Environmental & sustainability engineering
MAJOR COMPANIES
Leading Firms
AECOM – Transportation, environmental remediation, water systems, urban planning
Jacobs Solutions Inc. – Defense, aerospace, smart infrastructure, cybersecurity
Tetra Tech – Water, environment, renewable energy, climate adaptation
WSP USA – Transportation, urban development, energy & utilities
Fluor Corporation – Oil & gas, mining, nuclear, advanced manufacturing
EMERGING TRENDS
Digital Transformation & Industry 4.0: BIM, digital twins, AI, cloud platforms.
Sustainability & Green Engineering: Carbon reduction, renewable systems, sustainable design.
Automation & Robotics: Growth in manufacturing, construction, infrastructure maintenance.
Remote & Hybrid Work Models: Flexible structures supported by digital collaboration tools.
Interdisciplinary Collaboration: Integrated cross-functional engineering teams.
AI & Machine Learning: Applied in design optimization, predictive maintenance, and project planning.
CHALLENGES
Talent Shortages: High demand for semiconductor, robotics, and AI engineers.
Aging Workforce: Retirement-driven succession challenges.
Return-to-Office Mandates: Potential retention risks for engineers seeking flexibility.
Regulatory Complexity: Environmental, safety, and compliance requirements.
Supply Chain Disruptions: Impacting project costs and timelines.
Cybersecurity Risks: Growing vulnerabilities with digital/cloud adoption.
Competition for Talent: Rising salaries strain smaller firms.
Economic Uncertainty: Financing costs tied to inflation and interest rate shifts.
EDUCATIONAL LANDSCAPE
Universities & Colleges: Hundreds of accredited engineering programs nationwide.
STEM Initiatives: Federal/state programs to expand engineering pipelines.
Industry–Academia Partnerships: Internships, co-ops, research collaborations.
Continuing Education: Certifications and CPD through professional bodies.
Diversity & Inclusion Efforts: Expanding participation among underrepresented groups.
Alternative Pathways: Coding bootcamps, online platforms, certifications for software/system engineering careers.
CONCLUSION
The US engineering industry in 2025 is marked by strong fundamentals, positive growth prospects, and strategic importance to national competitiveness. Federal infrastructure investments, digital transformation, and emerging technologies will continue to drive expansion.
However, the sector must urgently address talent shortages, succession planning, and the integration of new technologies. Firms that prioritize digital adoption, sustainability, interdisciplinary collaboration, and workforce development will be best positioned for long-term success.
The industry’s central role in innovation, infrastructure, and economic growth ensures its continued importance. By tackling current challenges, the US engineering sector can reinforce its global leadership and secure sustainable growth through 2030 and beyond.