Discover how to design spaces where silence and harmony are the key, with this Postgraduate certificate in Acoustic Insulation in Building Construction” 

Sound Insulation Engineering in buildings plays an essential role in the creation of ideal sound environments in a world increasingly influenced by noise. Understanding the propagation and impact of sound in enclosed spaces, as well as mastering the theories and techniques for its control, is imperative in today's society. This academic program focuses on providing a comprehensive understanding of this discipline. 

This syllabus is characterized by its focus and innovative teaching methodology based on the Relearning method and the use of tools such as Storytelling. This allows students the opportunity to assimilate and effectively apply the guidelines provided during the learning process. In this way they acquire a solid knowledge, ranging from sound propagation in enclosures to implementation in the design of environments. As a result, they will be prepared to contribute in spaces that comply with insulation standards, achieving ideal environments. 

This academic offer not only guarantees a high quality education in this discipline, but also cultivates practical skills that are highly valued in the construction and acoustic engineering industries. In this way, students achieve essential skills to contribute to the design and construction of spaces with an optimal sound balance, promoting more comfortable and functional environments.

Explore the the theories behind sound and become an expert in creating ideal sound environments with this cutting-edge academic program” 

This Postgraduate certificate in Acoustic Insulation in Building Construction contains the most complete and up-to-date educational program on the market. The most important features include: 

• The development of practical cases presented by experts in Acoustic Insulation in Building Construction 
• The graphic, schematic, and practical contents with which they are created, provide scientific and practical information on the disciplines that are essential for professional practice
• The practical exercises where the self-evaluation process can be carried out to improve learning
• Its special emphasis on innovative methodologies  
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments 
• Content that is accessible from any fixed or portable device with an Internet connection

Learn how to calculate acoustic modes and the skill of acoustic absorption in an innovative learning environment”

The program includes in its teaching staff professionals of the field who pour into this training the experience of their work, in addition to recognized specialists from reference societies and prestigious universities.  

Its multimedia content, developed with the latest educational technology, will allow the professional a situated and contextual learning, that is, a simulated environment that will provide an immersive training programmed to train in real situations.  

The design of this program focuses on Problem-Based Learning, in which the professional will have to try to solve the different professional practice situations that will arise throughout the academic course. For this purpose, the student will be assisted by an innovative interactive video system created by renowned experts.

TECH offers you the flexibility to study from anywhere, without compromising the quality of your learning in acoustic engineering"

Get ready to lead acoustic design projects and contribute to the creation of comfortable spaces with the guidance of the best experts in Acoustic Insulation"

The focus of this syllabus delves into the fundamentals of modern acoustics, beginning with the characterization of enclosures and exploring the propagation of sound in open and closed spaces. It also delves into the theories of room acoustics, such as wave and statistical acoustics, the absorption of acoustic materials and their variables in multifunctional spaces. This provides solid knowledge in the application of the principles and practices of this area. For this purpose, the graduate has at their disposal pedagogical resources such as specialized readings, case studies or multimedia pills. 

The team of teaching experts will accompany you on the road to mastering Engineering in Building Construction Acoustics. Your future will sound better than ever”  

Module 1. Acoustic Insulation

1.1. Acoustic Characterization in Enclosures  

1.1.1. Sound Propagation in Free Space  
1.1.2. Sound Propagation in an Enclosure. Reflected Sound  
1.1.3. Theories of Room Acoustics: Wavelet, Statistical and Geometrical Theory

1.2. Analysis of Wavelet Theory (f≤fs)

1.2.1. Modal Problems of a Room Derived from the Acoustical Wave Equation  
1.2.2. Axial, Tangential and Oblique Modes
1.2.2.1. Three-Dimensional Equation and Modal Reinforcement Characteristics of Different Types of Modes  
1.2.3. Modal Density. Schroeder Frequency. Spectral Curve of Application of Theories  

1.3. Modal Distribution Criteria  

1.3.1. Aurean Measures  

1.3.1.1. Other Posterior Measures (Bolt, Septmeyer, Louden, Boner, Sabine)

1.3.2. Walker and Bonello Criterion  
1.3.3. Bolt's Diagram  

1.4. Statistical Theory Analysis (fs≤f≤4fs)

1.4.1. Homogeneous Diffusion Criterion. Sound Temporal Energy Balance  
1.4.2. Direct and Reverberant Field. Critical Distance and Room Constant  
1.4.3. TR. Sabine Calculation. Energy Decay Curve (ETC curve)
1.4.4. Optimal Reverberation Time. Beranek Tables  

1.5. Geometric Theory Analysis (f≥4fs)

1.5.1. Specular and Non-specular Reflection. Application of Snell's Law for f≥4fs.geometry Theory Analysis (f≥ 4fs)
1.5.2. First-order Reflections. Echogram  
1.5.3. Floating Echo  

1.6. Materials for Acoustic Conditioning. Absorption  

1.6.1. Absorption of Membranes and Fibers. Porous Materials  
1.6.2. Acoustic Reduction Coefficient NRC  
1.6.3. Variation of Absorption as a Function of Material Characteristics (Thickness, Porosity, Density, etc.)

1.7. Parameters for the evaluation of the acoustic quality in enclosures  

1.7.1. Energetic Parameters (G, C50, C80, ITDG)  
1.7.2. Reverberation Parameters (TR, EDT, BR, Br)  
1.7.3. Spatiality Parameters (IACCE, IACCL, LG, LFE, LFCE)  

1.8. Room Acoustic Design Procedures and Considerations

1.8.1. Reduction of Direct Sound Attenuation from Room Shape  
1.8.2. Analysis of Room Shape in Relation to Reflections  
1.8.3. Prediction of the Noise Level in a Room  

1.9. Acoustic Diffusers  

1.9.1. Polycylindrical Diffusers  
1.9.2. Maximum Sequence Length (MLS) Schroeder Diffusers  
1.9.3. Quadratic Residual Schroeder Diffusers (QRD)  

1.9.3.1. One-dimensional QRD Diffusers  
1.9.3.2. Two-dimensional QRD Diffusers  
1.9.3.3. Primitive Root Schroeder Diffusers (PRD)  

1.10. Variable Acoustics in Multifunctional Spaces. Elements for its Design

1.10.1. Design of Variable Acoustic Spaces from Variable Physical Elements
1.10.2. Design of Variable Acoustic Spaces from Electronic Systems
1.10.3. Comparative Analysis of the Use of Physical Elements vs Electronic Systems   

Knowledge is the key to building acoustically perfect spaces. Join TECH and develop the best skills in this field”