Tessellated Acoustic Components for Balanced Sound Control
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing acoustical surface treatments, such as foam products, have limited aesthetic appeal and acoustical utility, primarily offering sound absorption with limited adjustability in frequency response, leading to potential imbalances in acoustical response, especially in environments requiring a balanced high-frequency, mid-frequency, and low-frequency performance.
Innovation Solution
The development of three-dimensional tessellated acoustic components that can be stacked and nested for efficient shipping and production, allowing for customizable acoustical characteristics by combining absorptive and reflective surfaces, and optionally coated with skins for enhanced diffusion and aesthetic appeal, enabling precise control over absorption, reflection, and diffusion across different frequency ranges.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If traditional foam products are used for sound absorption, then sound absorption performance is improved, but aesthetic appeal and acoustical utility are limited
Solution Approach 1:
The acoustic treatment is divided into multiple planar components with different surface geometries (flat, convex, concave) that can be independently selected and arranged. Each component type provides different acoustic properties, allowing customization of both aesthetic appearance and acoustical performance for high-frequency, mid-frequency, and low-frequency ranges.
Solution Approach 2:
Different regions of the acoustic treatment can use different component types with specific surface geometries tailored to local acoustic requirements. For example, convex surfaces can be placed in areas needing diffusion, while flat surfaces provide absorption, creating locally optimized acoustic zones within the overall treatment.
2Ease of manufacture
If foam products with simple surface shapes are used, then manufacturing cost is reduced, but aesthetic appeal and acoustical adjustability are limited
Solution Approach 1:
The system segments acoustic treatment into standardized planar components that can be manufactured using simple, cost-effective processes. Each component type (flat, convex, concave) is produced as a discrete unit, allowing efficient manufacturing while maintaining acoustic performance through geometric variation rather than material complexity.
Solution Approach 2:
Acoustical characteristics are adjusted by changing geometric parameters of the planar components (surface curvature, orientation, arrangement patterns) rather than changing material properties. This allows extensive acoustical customization through simple shape variations that remain manufacturable using standard processes.
3Ease of operation
If traditional foam products are applied indiscriminately, then installation is simplified, but acoustical balance is compromised
Solution Approach 1:
The acoustic treatment is segmented into standardized planar components that can be systematically arranged in repeating patterns or custom configurations. This segmentation allows installers to achieve proper acoustic balance through methodical arrangement of different component types rather than requiring complex custom fabrication or indiscriminate application.
Solution Approach 2:
The planar components are designed to be universally applicable in multiple configurations and arrangements. The same basic component types can serve multiple acoustic functions (absorption, diffusion, reflection) depending on their orientation and arrangement, allowing flexible installation approaches that maintain acoustic balance across different application scenarios.
4Reliability
If acoustical treatment is customized for frequency response, then acoustical performance is improved, but production complexity and material waste increase
Solution Approach 1:
Frequency response customization is achieved by selecting and arranging different types of planar components (flat, convex, concave) in specific proportions and patterns, rather than custom-manufacturing each piece. This segmentation allows acoustic tuning through compositional variation of standardized elements, reducing production complexity while maintaining performance customization.
Solution Approach 2:
Frequency response characteristics are controlled by changing the arrangement parameters and geometric configurations of standard planar components rather than altering material properties or custom-manufacturing parts. This allows acoustic customization through design parameter adjustment while maintaining simple, consistent production processes.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
These components provide improved acoustical performance with enhanced aesthetic value, allowing for balanced sound absorption and reflection, reducing material waste and shipping costs, while offering flexible installation patterns and precise control over sound characteristics, suitable for various environments from studios to homes.
Implementation Method 1
acoustically absorptive components may be manufactured from materials such as acoustic foam
Implementation Method 2
broadband sound absorption
Implementation Method 3
when skins are added to the configurations in optional embodiments, those skinned surfaces directly add diffusion to the results
Implementation Method 4
they can reflect the sound, changing its direction of travel
Data Source
AI summary
A set of acoustic components having complementarily tessellated shapes such that they may be nested together to constitute a rectangular parellelepiped, suitable for efficient storage and shipping. Each component also has a flat side. The shape set is further defined such that many aesthetically attractive, sculpture-like configurations may be created through installation of the components on a flat surface of a building such as a wall or ceiling, while substantially modifying the acoustic properties of the building feature. Acoustically absorptive, reflective, and diffusive components can be used in combinations with each other in order to achieve desired acoustic treatment of the building feature. Several methods of fabrication of the acoustic components are disclosed.