Principles of Vibration Control | EveryEng

Skip to main content

Self-paced Advanced

Principles of Vibration Control

3(118)

293 views

Trainers Rating: 3(118)
Course type: Watch to learn anytime
Duration: 630 min
Start: Anytime
Language: English
Views: 293

Lifetime access
Anytime Learning
Learn from Industry Expert
Career Option Guideline

FREE

Engineering AcademyLearn Without Limits: Free Engineering Courses

Mechanics & Turbomachinery

Noise & Vibration Engineering

Why enroll

Participants join Principles of Vibration Control to gain a strong conceptual and practical understanding of how unwanted vibrations can be analyzed, controlled, and mitigated in engineering systems. The course equips learners with essential skills to improve system performance, reduce noise and structural damage, and enhance safety and reliability across mechanical, civil, aerospace, and automotive applications.

This course is particularly valuable for students and professionals who want to bridge theory with real-world engineering practice. By learning industry-relevant vibration control techniques—such as damping, isolation, and absorber design—participants enhance their problem-solving capabilities and technical competence, making them better prepared for advanced studies, research, and vibration-related challenges in modern engineering environments.

Your instructor

Engineering Academy

Project Engineer

Learn Without Limits: Free Engineering Courses

Total experience: 5+ years
Location: India

4Avg trainers rating

Course details

Principles of Vibration Control is a foundational subject that focuses on understanding, analyzing, and mitigating unwanted vibrations in mechanical and structural systems. The course introduces the physical origins of vibration, dynamic system behavior, and the adverse effects of excessive vibration on performance, safety, comfort, and service life. Emphasis is placed on the theoretical principles that govern vibration suppression and isolation, supported by practical engineering considerations.

Participants learn key vibration control strategies such as passive, active, and semi-active control methods, including damping techniques, vibration absorbers, isolation systems, and feedback-based control approaches. The course integrates mathematical modeling, frequency-domain analysis, and real-world case studies from mechanical, aerospace, civil, and automotive engineering applications. By the end of the course, learners gain the ability to select and design appropriate vibration control solutions to enhance system reliability, efficiency, and structural integrity in engineering practice.

Course suitable for

Is this course for you?

Perfect for

You work in Mechanics & Turbomachinery
You're a Noise & Vibration Engineering / Mechanical Engineering professional
You have 3+ years of hands-on experience in this field
You prefer self-paced learning you can revisit

Before you enrol

Advanced level — assumes working knowledge of Noise & Vibration Engineering
Self-paced video, 630 min — watch anytime

New to Noise & Vibration Engineering? Browse beginner courses →

Ready for the next step?

Paid courses that build on what this one teaches.

Course curriculum

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

21 lectures10 hr 30 min

Introduction to Vibration control
36 min
Strategies & Steps in Vibration Control
32 min
Strategies, Active control, Detuning & Decoupling
30 min
Viscous damping model
38 min
Coulomb & Hysteretic damping model
32 min
Energy Dissipation in Structural Materials
32 min
Material Selection Criterion against Damping
25 min
Design for Enhanced Material Damping
24 min
Linear Viscoelastic Materials & Models
35 min
Maxwell & 3-Parameter Models
37 min
Complex modulus & Applications of VEM
30 min
Proof mass Actuator
30 min
Springs for Vibration Isolation
28 min
Basics of Dynamic Vibration Absorber
26 min
Modelling of Dynamic Vibration Absorber
34 min
Introduction to Active Vibration Control
32 min
Basics of Classical Control System
42 min
Basics of State Space Control
31 min
Controllability & Observability of System
29 min
Full State Feedback Control
18 min
SMSS Laboratory Demonstration
9 min

Key topics covered

introduction to vibration control
strategies, active control, detuning & decoupling
coulomb & hysteretic damping model
energy dissipation in structural materials
basic dynamic vibration absorber
introduction to active vibration control

Opportunities that await you!

Career opportunities

Frequently asked questions

Q: You're troubleshooting a compressor skid where the vibration trip is bypassed during startup. The client asks what physical failure mode the trip does NOT prevent. Search phrase included: vibration trip bypass startup consequence on compressor skid

A: A feels convincing because trips are often discussed around rub events, and high vibration is a good proxy for that risk during run-up. C is tempting since bearing failures and vibration trips get lumped together, but the root cause there is loss of lubrication, not vibration amplitude. D sounds plausible if you’re thinking about protection in general, yet a vibration trip doesn’t see thermal gradients at zero speed. B breaks the chain: low-amplitude, long-duration vibration sits below trip setpoints, so the safeguard never acts while fatigue damage quietly accumulates in the structure.

Q: On site for pre-commissioning, the motor and pump are coupled but uncaged. You need to verify vibration isolator performance before first run. What sequence actually gives you usable data? Search phrase included: how to verify vibration isolator performance before commissioning

A: A reads like good engineering math, but once you fully torque the bolts you may be preloading the isolators and corrupting the deflection reading. B is a common habit from rigid-mounted equipment, yet alignment before isolator verification masks a wrong spring rate. C feels bold and fast-track friendly, though running before confirming load and orientation risks bottoming out the isolators. D respects cause and effect: orientation and free height first, then load, then compare actual deflection to the vendor’s allowable band.

Q: You’re reviewing a P&ID that shows a vibration switch on the pump bearing, but the instrument list calls it a transmitter. With commissioning today, what can you state with confidence from the documents alone? Search phrase included: vibration switch vs transmitter symbol P&ID confusion

A: A leans on the instrument list wording, but lists are often copied forward and lag reality. B assumes a wiring philosophy that isn’t visible without a loop diagram. C pulls in a PLC assumption that may not exist if it’s a dry contact. D sticks to what the P&ID symbol actually communicates: a discrete vibration-initiated shutdown, even if the tag text is sloppy.

Q: A tuned mass damper (TMD) is installed on a pipe rack to control resonance. During inspection you find it detuned due to corrosion loss. What risk remains controlled, and what does it no longer address? Search phrase included: tuned mass damper detuned corrosion risk

A: A mixes up acceleration and displacement in a way that sounds right if you’ve lived in seismic design, yet TMDs aren’t generic accelerometers. C implies frequency shift dominance, but the primary role is energy dissipation at a tuned point. D understates the device, treating it like dead steel. B matches the physics: mass and dashpot effects remain, giving some damping, while the loss of tuning kills its ability to suppress the targeted resonance.

Mechanical Engineering755 courses

Chemical & Process287 courses

Electrical Engineering233 courses

Piping & Layout Engineering175 courses

Metallurgy & Material Science159 courses

Instrumentation Engineering149 courses

Manufacturing Engineering134 courses

Civil & Structural122 courses

FREE

Access anytime

What learners say about this course

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

Put no limit on your engineering passion.

We would love to hear from you.

Engineers collaborating around a laptop