Transportation & Mobility Engineering Services
Transportation and mobility engineering services using simulation-driven analysis for safer, smarter, and more efficient vehicles and transportation systems
At ENA2, we support OEMs, suppliers, and mobility startups with high-fidelity simulation and design validation services. Our work covers crash simulation, durability analysis, aerodynamic analysis, vibration analysis, and battery thermal management—helping improve reliability, safety, and regulatory compliance. Whether it is electric vehicles, commercial transport, or future mobility systems, we help accelerate development with fewer prototypes and stronger engineering confidence.
As an engineering consulting company serving Canada and the United States, ENA2 supports OEMs, suppliers, and mobility teams with simulation-led analysis for crash performance, durability, aerodynamics, vibration, and battery thermal management across vehicle and transportation systems.
WHAT WE DO
ENA2 delivers end-to-end simulation and validation services to meet the evolving challenges of the automotive and mobility industry. We partner with OEMs and suppliers to improve durability, crashworthiness, aerodynamic efficiency, vibration behavior, and thermal performance across the vehicle development lifecycle.
Our Durability & Reliability services help evaluate stiffness, fatigue, and failure risks using non-linear FEA and large-strain simulations. For Crash & Safety, we simulate frontal, side, rear, rollover, and drop-impact events to support safer vehicle structures and compliance with global regulatory standards.
In the domain of Optimization, ENA2 supports weight reduction and cost savings through gauge optimization, material substitution, and topology/topography-driven design. Our Vibration Analysis team provides insights into modal behavior, frequency response, shock, and dynamic stiffness, helping ensure ride comfort and product longevity.
We also conduct Aero and Thermal Simulations, covering HVAC efficiency, electronic cooling, aero-acoustics, and battery thermal management—crucial for next-gen EV platforms.
With a focus on accuracy, speed, and real-world relevance, ENA2 turns simulation results into practical engineering decisions across the vehicle development lifecycle.
HOW WE DO IT
At ENA2, as one of the leading engineering consulting firms in Canada, our process integrates advanced simulation tools, engineering expertise, and cross-domain collaboration to solve transportation and mobility engineering challenges with precision and agility.
We begin by aligning with your product goals, whether that means reducing weight, improving crash safety, enhancing battery cooling, increasing durability, or improving aerodynamic efficiency. Using tools such as LS-DYNA, Abaqus, Star-CCM+, and OptiStruct, our engineers simulate structural, thermal, acoustic, aerodynamic, and fatigue behavior under realistic loading conditions.
For durability, we run multi-physics simulations involving stress-life and strain-life assessments to identify fatigue-prone areas. In crash scenarios, we model full vehicle impacts, sub-system drops, and rollover events, validating against NCAP or FMVSS standards. Our optimization workflows leverage DOE and AI-assisted parameter tuning for mass reduction while preserving stiffness and strength.
To address vibration, we carry out modal and frequency response analyses for brackets, mounts, and cabin components, preventing failures from resonance and shock. Our thermal engineers simulate cabin HVAC, power electronics cooling, and battery pack thermal dispersion to enhance performance and safety.
All insights are delivered in a collaborative format with result visualizations, design recommendations, and support for design iterations. Whether working alongside your team or providing standalone support, ENA2 helps accelerate development of safer, more efficient, and better-performing vehicles.
Durability and Usability Analysis for Real-World Driving Conditions
Automotive components must demonstrate reliable performance not only during crash events, but also throughout years of repeated, real-world operation. Will a tailgate mechanism or door hinge endure thousands of openings and closings without failure? Can a center console armrest withstand varying user loads during daily operation? How do mounts and brackets hold up under prolonged stress and harsh environmental conditions?
At ENA2, we simulate both durability and usability load cases using advanced Finite Element Analysis (FEA) techniques. Our approach captures large-strain behavior, material yielding, and functional stresses under operational actions—like pulling, pressing, seating, or rotating. By applying realistic boundary conditions, we predict potential failure points caused by operational loading or environmental exposure.
Our simulations enable early design optimization for stiffness, strength, weld integrity, and component geometry—reducing field issues and improving customer satisfaction. Whether validating a lift gate, center console, battery enclosure, or bracket, ENA2 ensures your systems are engineered for long-term performance and real-world reliability.
Crash and Occupant Safety Simulation for Vehicle Structural Integrity
Vehicle safety is a cornerstone of automotive engineering. But will your structure behave as intended under high-speed impact? Are restraint systems responding accurately? Can crumple zones absorb energy to reduce injury risk?
At ENA2, we simulate complex crash and safety events using nonlinear explicit FEA techniques and validated material models. Our analyses replicate frontal, side, rear, and rollover impacts, enabling assessment of vehicle deformation, intrusion levels, restraint performance, and energy absorption. We also model interactions with crash test dummies and human body surrogates to evaluate occupant kinematics and injury risk.
These simulations provide critical insights early in the development cycle—supporting safer designs, reducing physical testing costs, and ensuring compliance with global NCAP, FMVSS, and IIHS standards. Whether validating EV battery protection or improving seatbelt effectiveness, ENA2 helps you engineer safety from the inside out.
Design Optimization for Weight Reduction, Performance, and Efficiency
Achieving the ideal balance between strength, weight, and manufacturability is a constant challenge in automotive engineering. Can your component be made lighter without sacrificing performance? Are there more efficient material or geometry choices that reduce cost while meeting safety and durability goals?
At ENA2, we use advanced optimization techniques—including topology, shape, and size optimization, as well as DOE (Design of Experiments)—to refine designs across body structures, chassis systems, and EV platforms. Our simulations help identify where material can be removed, stiffness can be improved, and performance targets can be exceeded.
We support everything from early concept evaluations to final validation, enabling faster iterations and fewer prototypes. Whether it’s reducing mass for fuel efficiency or enhancing stiffness for structural integrity and performance, ENA2 delivers optimized, production-ready solutions that meet industry regulations and customer expectations.
Aerodynamic Analysis for Drag Reduction, Efficiency, and Vehicle Stability
Aerodynamic efficiency is vital in modern automotive design because it directly affects drag, fuel economy, EV range, handling, and high-speed stability. Understanding how airflow interacts with the vehicle body, underbody, and external features helps teams reduce drag without sacrificing stability or design intent.
At ENA2, we use Computational Fluid Dynamics (CFD) to simulate external airflow around vehicles under real-world driving conditions. Our services include drag and lift coefficient evaluation, wake flow analysis, underbody airflow assessment, and optimization of spoilers, diffusers, and grille openings.
Through digital wind tunnel simulations, we help automotive teams identify design inefficiencies, test modifications, and make informed decisions early in the development cycle. From passenger cars to commercial vehicles and performance EVs, ENA2 enables you to refine your vehicle’s aerodynamics for maximum efficiency, reduced drag, and enhanced road stability.
Battery Thermal Management and Electronics Cooling Analysis
With growing electrical integration and system miniaturization, precise thermal control is more important than ever. Battery modules, inverters, onboard chargers, and control electronics must operate within safe temperature limits under both steady-state and transient conditions. Without effective thermal management, localized heat buildup can reduce safety, efficiency, and long-term system reliability.
At ENA2, we use Computational Fluid Dynamics (CFD) to analyze heat flow, temperature distribution, and cooling performance across automotive systems. Our services support Battery Thermal Management (BTM) and electronics cooling for battery packs, inverters, onboard chargers, control units, and power electronics.
We evaluate both steady-state and transient conditions to identify hot spots, optimize airflow paths, and validate passive or active cooling strategies. Whether you’re designing battery enclosures or high-density electronic systems, ENA2 ensures effective thermal regulation that enhances operational safety, energy efficiency, and system reliability.
Common Transportation Engineering Challenges We Help Solve
Transportation and mobility systems often operate under a difficult combination of crash loading, repeated durability demands, vibration, thermal management requirements, and aerodynamic performance targets. ENA2 helps product teams evaluate these issues early so they can improve safety, reduce prototype iterations, and support better vehicle performance.
- Fatigue and stiffness issues in body structures, brackets, mounts, and closures
- Crash deformation, intrusion risk, and energy absorption challenges in safety-critical structures
- Weight reduction without compromising strength, manufacturability, or durability
- Aerodynamic drag, lift, wake behavior, and underbody airflow inefficiencies
- Battery enclosure overheating, thermal imbalance, and electronics cooling issues
- Resonance, shock, and dynamic stiffness concerns in mounts, brackets, and cabin components
Typical Transportation Systems We Support
Our transportation and mobility engineering services are commonly applied to:
- Body structures, closures, hinges, and latch-related systems
- Mounts, brackets, supports, and cabin components
- Crash-relevant structures and battery protection systems
- Chassis and body-in-white optimization studies
- Battery packs, inverters, onboard chargers, and electronics cooling systems
- Passenger vehicles, commercial vehicles, and EV platforms
