Job brief
We are looking for a highly skilled Automotive Engineer to join our vehicle development team and spearhead the next generation of mechanical innovation. You will play a critical role in the lifecycle of our products, from initial concept and virtual prototyping to final validation and assembly line integration. This is an exciting opportunity for an engineer who thrives on technical problem-solving and wants to see their designs move from screen to the open road. If you are passionate about automotive dynamics and precision engineering, we invite you to help us shape the future of mobility.
Key highlights
- Design and optimize vehicle sub-systems, including chassis, powertrain, and interior components, using 3D modeling software like CATIA or Creo.
- Conduct Finite Element Analysis (FEA) and Computational Fluid Dynamics (CFD) simulations to predict component behavior under varied thermal and mechanical stresses.
- Develop and execute rigorous vehicle testing protocols to validate designs against FMVSS and international safety standards.
- Collaborate with manufacturing teams to implement DFM (Design for Manufacturing) principles that reduce assembly cycle time and material waste.
What is a Automotive Engineer?
An Automotive Engineer is a specialized professional responsible for the research, design, development, and testing of vehicle systems and components. Automotive Engineers leverage advanced mechanical principles to improve vehicle safety, fuel efficiency, and overall performance while balancing complex manufacturing constraints. Their expertise is essential in bridging the gap between innovative conceptual design and high-volume mass production, ensuring that modern transportation remains safe, sustainable, and reliable.
What does a Automotive Engineer do?
On a daily basis, an Automotive Engineer uses CAD platforms like CATIA or Siemens NX to model complex assemblies and conducts FEA simulations to validate structural integrity. They collaborate with cross-functional teams to integrate propulsion systems, evaluate prototype test results, and resolve manufacturing defects using GD&T standards. Beyond design, they act as technical liaisons with suppliers and quality departments to ensure all components adhere to strict industry safety regulations and performance metrics.
Key responsibilities
- Design and optimize vehicle sub-systems, including chassis, powertrain, and interior components, using 3D modeling software like CATIA or Creo.
- Conduct Finite Element Analysis (FEA) and Computational Fluid Dynamics (CFD) simulations to predict component behavior under varied thermal and mechanical stresses.
- Develop and execute rigorous vehicle testing protocols to validate designs against FMVSS and international safety standards.
- Collaborate with manufacturing teams to implement DFM (Design for Manufacturing) principles that reduce assembly cycle time and material waste.
- Manage the end-to-end BOM (Bill of Materials) structure while ensuring all components meet cost, weight, and performance targets.
- Troubleshoot complex mechanical failures in prototype vehicles by performing root-cause analysis and implementing iterative design improvements.
- Coordinate with third-party suppliers to oversee technical evaluations, tooling development, and quality audits of critical automotive parts.
- Prepare comprehensive technical reports, engineering change notices (ECNs), and validation documentation for project stakeholders and regulatory bodies.
Requirements and skills
- Bachelor’s degree in Mechanical Engineering, Automotive Engineering, or a closely related discipline from an accredited institution.
- Proficiency in industry-standard CAD software such as CATIA V5/V6, Siemens NX, or SolidWorks for complex part and assembly design.
- Hands-on experience performing structural and thermal analysis using FEA tools like ANSYS, Abaqus, or HyperMesh.
- In-depth knowledge of Geometric Dimensioning and Tolerancing (GD&T) per ASME Y14.5 standards for precise manufacturing specifications.
- Strong understanding of automotive manufacturing processes, including high-pressure die casting, plastic injection molding, and robotic welding.
- Proven capability in data acquisition and analysis using tools like MATLAB, Simulink, or LabVIEW to optimize control systems.
- Familiarity with automotive industry quality standards such as IATF 16949, ISO 26262, or APQP/PPAP requirements.
- Excellent ability to communicate complex technical design trade-offs to non-engineering stakeholders, including product management and procurement leads.
FAQs
What does an Automotive Engineer do?
An Automotive Engineer is responsible for the technical design, development, and testing of vehicle components and systems. Their work encompasses everything from initial conceptual modeling and aerodynamic analysis to the final validation of a vehicle for production. They ensure that all automotive designs meet rigorous safety, cost, and efficiency benchmarks while utilizing advanced mechanical engineering principles.
What skills are required for an Automotive Engineer?
Essential skills include mastery of 3D CAD software like CATIA or NX, proficiency in FEA/CFD simulation, and a deep understanding of manufacturing processes such as machining and molding. Automotive Engineers must also be well-versed in GD&T standards and automotive safety regulations. Beyond technical tools, analytical problem-solving and the ability to manage cross-functional projects are vital for long-term success.
Who does an Automotive Engineer work with?
Automotive Engineers work in multidisciplinary environments, collaborating closely with production and manufacturing teams to ensure design feasibility. They frequently interact with procurement departments for supply chain management, quality engineers for compliance testing, and project managers to ensure development timelines are met. Additionally, they often act as technical points of contact for external vendors and sub-tier component suppliers.
Why is an Automotive Engineer important?
Automotive Engineers are central to the innovation and safety of the modern transportation industry. By optimizing vehicle dynamics and integrating new mechanical technologies, they enable the production of cars that are safer, more fuel-efficient, and more reliable for consumers. Their work directly impacts the bottom line by improving manufacturing efficiency and the physical safety of vehicles on the road.