
Acoustics: Basics To New Horizons And Emerging Technologies
Published 5/2025
MP4 | Video: h264, 1920×1080 | Audio: AAC, 44.1 KHz
Mastering Acoustics: From Fundamentals to Real-World Design
What you’ll learn
Understand the fundamental principles of acoustics including sound propagation, wave behavior, and acoustic parameters in different media.
Analyze the characteristics of sound in enclosed spaces and evaluate the effects of architectural design on sound quality and acoustic performance.
Evaluate acoustic solutions for real-world applications such as recording studios, auditoriums, classrooms, and industrial facilities using simulation tools and
Requirements
A basic understanding of physics and mathematics, along with an interest in sound and its real-world applications, is recommended for taking this course-no prior experience in acoustics is required.
Description
Overview
Section 1: Introduction
Lecture 1 Overview of Acoustics
Lecture 2 About the course
Section 2: Introduction to Acoustics
Lecture 3 What is Acoustics? – A Scientific Overview
Lecture 4 Material
Lecture 6 Importance of Acoustics in Everyday Life
Lecture 7 Material
Lecture 8 Acoustics flipped class
Lecture 9 Applications of Acoustics in Architecture, Engineering, and Music
Lecture 10 Material
Lecture 11 Applications of Acoustics
Lecture 12 Material
Section 3: Characteristics of Musical Sound
Lecture 13 Pitch, Loudness, and Quality (Timbre) – Explained
Lecture 14 Flippedclass
Lecture 15 Harmonics and Overtones in Musical Sound
Lecture 16 Material
Lecture 17 Relationship Between Frequency, Amplitude, and Perception
Section 4: Reverberation and Reverberation Time
Lecture 18 What is Reverberation? – Phenomenon and Effects
Lecture 19 Reverberation Material
Lecture 20 Reverberation Time
Lecture 21 Material
Lecture 22 Measurement and Real-life Examples of Reverberation Time
Lecture 23 Sabine’s Formula for Reverberation time
Lecture 24 Material
Section 5: Absorption Coefficient
Lecture 25 What is Absorption Coefficient?
Lecture 26 Measurement of absorption coefficient
Lecture 27 Problems on acoustics
Section 6: Sabine’s Formula and Reverberation Time Calculation
Lecture 28 Derivation and Explanation of Sabine’s Formula
Lecture 29 Applications of Sabine’s Formula with Examples
Section 7: Designing an Acoustically Good Hall
Lecture 30 Acoustic Requirements of Acoustically Good Hall
Lecture 31 Material
Lecture 32 Ideal Reverberation Time for Different Halls
Lecture 33 Practical Case Studies – Good vs Poor Acoustics
Section 8: Factors Affecting Architectural Acoustics
Lecture 34 Factors Affecting Architectural Acoustics
Lecture 35 Material
Lecture 36 Reflection, Echo, and Reverberation Issues
Lecture 37 External Noise, Internal Sound Transmission
Lecture 38 Remedies for Poor Architectural Acoustics
Section 9: Acoustic Quieting – Noise Control Techniques
Lecture 39 What is Acoustic Quieting? – Scope and Importance
Lecture 40 Material
Lecture 41 Passive and Active Noise Control Methods
Lecture 42 Soundproofing Materials and Structural Design
Section 10: Real-World Applications and Project Ideas
Lecture 43 Advanced Applications
Lecture 44 Material
This course is for students, educators, engineers, architects, musicians, and anyone interested in understanding, applying, or designing with the principles of acoustics in real-world scenarios.

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