Online Course on Vibration and Noise Control: Theory and Practice (2:0)

Objectives

Growing awareness of vibration, noise and harshness feeling has necessitated the valid design criterion in the design of machines, automobiles, buildings, industrial facilities, etc, and the increasing number of standard regulations and human comfort associated with noise, harshness and vibration makes it mandatory to control vibration and noise leading to quieter technology in pumps, engines, compressors, chillers and other consumer products. There is a great demand to enhance the ride comfort of bikes, cars, aircrafts and other automobiles. Vehicle Dynamics basics and rowing awareness about noise pollution among the consumer necessitates the OEM companies to stress upon the products without NVH problems. Analytical, MATLAB and FEM based tools such as ANSYS, NASTRON, ABACUS and SYSNOISE helps to achieve the goals of NVH study. This course is for engineers/scientists/entrepreneurs/instructors in the industries/institutes to learn the analytical and experimental skills to tackle the problems related noise, vibration and harshness (NVH) during design and manufacturing stage for technically superior and commercially viable product to achieve “EMPOWER INDIA WITH SKILL AND Knowledge”

Syllabus

Vibration of structural systems. SDOF, 2-DOF, MDOF and continuous systems. Eigen values and vector estimation methods. Free and Forced vibration analysis. Torsional vibration and applications. Damping estimation methods Structural Vibration control elements: isolation, damping, balancing, resonators, absorption, barriers and enclosures. Vibration and noise standards. NVH measurement tools and techniques. Modal parameter (natural frequency, mode shape and damping) estimation techniques. Signal and system analysis. Demonstration of vibration and noise experiments – beam, plates, impulse excitation, electrodynamic shaker excitation, FFT analyzer, stroboscope and mode shape animation, sound level meter, microphones. Vibration transfer function (VTF) and noise transfer function (NTF) Noise and its effects on man. Acoustic and sound field. Enclosures, shields and barriers-design. Silencer and suppression systems. Noise level interpolation and mapping. Harshness effects and measurements and solutions. NVH Parameters related to vehicle dynamics. Case studies discussion (vibration reduction in passenger car, tiller, tractors, steering column/wheel vibration diagnosis, Modal analysis of Helicopter, Vibration diagnosis in diesel engine power plant, rotodynamic analysis of DWR and tracking antenna and engine and compressor noise attenuation and vibration isolation, engine-compressor mount design, vibration diagnosis in power plants, gear shift harshness, newspaper printing cylinder vibration diagnosis, engine filter bracket dynamic analysis, noise reduction for mixer grinders, field audit of industrial chimney for wind induced vibration, stability studies of sports bike, aerodynamic stability derivatives of scaled model of aerospace vehicles)

 Target Group

Mechanical, Civil, Aerospace, Automotive, Industrial engineers, construction technologists, R & D Labs, New product design and development groups, Entrepreneurs and Engineering college instructors. Professionals to pursue postgraduate and higher studies

S B Kandagal

S B Kandagal

Principal Research Scientist,

Dept of AE, IISc, Bengaluru.

Email: ksb@iisc.ac.in

Number of credits – 2:0
Mode of Instruction
Online Classes using Microsoft Teams  Online Seats are Limited to 100

Duration
5 Months (JAN – MAY 2025)

Timings of the class
Wednesday (6.00PM to 8.00PM)

Course Fee
₹ 10000 (Excluding 18% GST)

 

Particulars Amount (in ₹)
Course Fee 10,000
Application Fee 300
GST@18% 1,854
Total 12,154

Who Can apply?

BE, ME, MSc, AMIE, or equivalent

Reference Books

  1. Harris, C.W” Shock and vibration handbook” McGraw Hill, New York, 2012.
  2. Ewins, D.J.” Modal analysis: Theory and Practice”, Research Studies Press Ltd, England, 2014
  3. Gillespie, T.D., “Fundamentals of Vehicle Dynamics”, Society of Automotive Engr’s., Inc, 2010.
  4. Beranek, L.L,” Noise and Vibration Control”, Wiley, 2008