Skip to main contentEngineering Courses, Mentoring & Jobs | EveryEng
Vehicle Dynamics & NVH (wind noise, tyre / road noise, driveline vibrations) banner

Vehicle Dynamics & NVH (wind noise, tyre / road noise, driveline vibrations)

Vehicle Dynamics & NVH (wind noise, tyre / road noise, driveline vibrations) banner
Self-paced Intermediate

Vehicle Dynamics & NVH (wind noise, tyre / road noise, driveline vibrations)

4(115)
2 enrolled
909 views
₹ 899
112 min
Anytime
English
909 views
MILIND AMBARDEKAR
MILIND AMBARDEKARConsultant
  • 7-day money-back guarantee
  • Lifetime access
  • Certificate of completion

Why enroll

In today's automotive world, refined vehicle dynamics and superior NVH performance are crucial for passenger comfort and vehicle durability.

This course offers practical insights into noise & vibration challenges and their engineering solutions, making it essential for engineers, NVH specialists, and vehicle dynamics teams.

Whether you're working on design of ICE vehicles, EVs, or commercial trucks, you’ll gain industry-relevant knowledge and tools to enhance their driving pleasure with the best-in-class NVH refinement especially at higher speeds ...

What enrolled engineers say

3 verified reviews
  • May 3, 2026

    Started as an L&D audit, then it kept crossing over into things I actually use when bridging legacy vehicle arch with newer obs and CI habits. The NVH order-tracking segment in Chapter 4 stuck, especially the 1.5x driveline mode example tied back to RPS and mount tuning. It’s applied without pretending we’re all in prod k8s; a few callouts even mirror how I annotate a repo or PR. mostly wish there was a bit more on wind noise correlation vs CFD, but the pacing improves as you move past the basics.

    Sujin P. · CAE Engineer Verified
  • May 3, 2026

    Needed material that would survive a code review, not slideware. The NVH framing bridges legacy test-cell heuristics to modern obs; the wind noise chapter’s A‑pillar vortex example and mic correlation at 120 kph stuck during PR debates. it's mostly practical, though I wasn't sold on the thin coverage of tyre/road order analysis integration into CI and infra. i've already sketched a refactor of our repo arch for driveline torsional modes, with notes on prod validation and RPS-like load cases.

    jet T. Verified
  • May 3, 2026

    wind noise chapter’s A-pillar mirror tweak example was useful; wasn't sold on the order tracking walkthrough, wished more on tyre/road FFT vs RPS correlation.

    Abaid R. Verified

Is this course for you?

You should take this if

  • You work in Automotive
  • You're a Automobile Engineering / Noise & Vibration Engineering professional
  • You have some foundational knowledge in the subject
  • You prefer self-paced learning you can revisit

You should skip if

  • You're looking for an introductory overview course
  • You need a different specialisation outside Automobile Engineering
  • You need live interaction with an instructor

Course details

This course explores the intersection of vehicle dynamics and NVH, covering key factors like aerodynamic forces on fast-moving vehicles, tyre rolling sound, and the impact of road-induced vibrations—especially in electric vehicles.

Participants will learn about wind noise control strategies, the role of suspension compliance and damping, and driveline imbalance at high speeds. Topics like steering wheel vibrations during cornering, overloaded commercial vehicles, and secondary ride comfort on rough roads will also be covered.

Advanced hydra-mount solutions and real-world case studies will help participants understand how to refine vehicle dynamics for a quiet, smooth ride.

Course suitable for

Key topics covered

  • Aerodynamic forces on faster vehicles

  • Design remedies to control wind noise inside the cabin

  • Tyre rolling sound & design of quiet tyres

  • Control of Road induced NVH of vehicles especially the Electrified ones

  • Role of Vehicle suspension components compliance and damping

  • High speed driveline imbalance and the vibration control strategies

  • Steering Wheel vibrations during vehicle cornering

  • Overloaded Commercial Vehicles

  • Secondary ride comfort on rough roads; need of hydra-mounts

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

4 lectures1 hr 52 min
  1. NVH Related to Vehicle Dyanamics
    36 min
  2. Wind Noise
    18 min
  3. Wind Tunnel Design Features
    29 min
  4. Optimal Suspension Bush Stiffness
    29 min

Opportunities that await you!

Career opportunities

Why people choose EveryEng

Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities-all in a flexible and supportive environment.

What learners say about this course

sachin bhagi
sachin bhagi
May 3, 2026

The NVH wheel-speed harmonics demo in Chapter 3 clicked for prod testing, but it's beginner-level; wished more on infra/obs tradeoffs, sensor cost.

Avatar icon
jet tapo
May 3, 2026

Needed material that would survive a code review, not slideware. The NVH framing bridges legacy test-cell heuristics to modern obs; the wind noise chapter’s A‑pillar vortex example and mic correlation at 120 kph stuck during PR debates. it's mostly practical, though I wasn't sold on the thin coverage of tyre/road order analysis integration into CI and infra. i've already sketched a refactor of our repo arch for driveline torsional modes, with notes on prod validation and RPS-like load cases.

Abhinav Mahajan
Abhinav Mahajan Design and Development Engineer
May 3, 2026

Came in to audit it for our L&D budget and ended up learning more than expected, especially mapping legacy NVH thinking to how teams actually work today. The Transfer Path Analysis chapter stuck: the example where they isolate a firewall mount using order tracking and a simple FFT waterfall made it click. It bridges old-school test rigs with modern obs and CI habits; not k8s-in-a-car, but the arch thinking translates. Mostly good, though I wasn't sold on the brief EV NVH bit and wished for more on active noise control—still, it's made a messy topic feel manageable.

Shivchandra  Wakle
Shivchandra Wakle
May 3, 2026

Reads like field notes from someone who's shipped and debugged NVH issues in prod. The moment that stuck was Chapter 3 on transfer path analysis, where the 180 Hz cabin boom gets traced back to an exhaust hanger stiffness change; that example maps cleanly to how we reason about arch and PR reviews. From a team lead angle, it’s mostly efficient for onboarding juniors without burning budget, though I wasn't sold on the light tooling walkthroughs and wished for more EV-specific NVH. left with a refactoring plan sketched for our test repo and CI.

₹899

Access anytime

Questions and Answers

A: A feels right because damping fixes noises in trims all the time, but it treats an acoustic symptom while the aerodynamic excitation remains. B sounds mechanically decisive, yet increasing glass preload often shifts the noise into a mid-band squeak and adds regulator wear. C is boring and slow, but it's the only move that tells you whether the within-tolerance supplier part can still violate aero intent when stacked with door and A‑pillar variation. D borrows logic from buzz control; turbulence noise doesn't care about cap softness once separation is set by geometry.

A: A goes to the physics: tread impact and air pumping scale directly with surface macrotexture, so without control you can't separate vehicle from pavement. B mixes in safety testing logic, but pass-by noise isn't about wet grip. C sounds metrology-smart, yet microphones don't care what rock is under the tyre. D borrows from efficiency testing; rolling resistance lives in a different ISO world.

A: A is tempting if you think purely in tolerances, but galling leaves smeared metal, not fine oxide debris. B matches the telltales: tiny oscillatory motion, oxygen, salt acting as an electrolyte, and noise tied to torque reversals. C sounds scary and automotive, yet the stress state and failure mode don't line up. D explains rust color, but not the vibration sensitivity to load direction.

A: A works on paper, but mass is permanent, expensive, and often drags fuel economy into the DFMEA. B is a first instinct and sometimes masks the issue, yet it trades NVH for durability and rolling resistance risk. C attacks the transfer path, not the source, and gives you tuning authority without touching the tyre spec. D sounds tyre-smart, but compound tweaks rarely land cleanly in a late program.