0
Article ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 2 ? Original research — experimental, observational, or case-control study. Direct primary evidence. Environmental Sources Policy & Risk Sign in to save

Cross-Laminated Timber Floor: Analysis of the Acoustic Properties and Radiation Efficiency

Applied Sciences 2022 7 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 30 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Nicola Granzotto, Arianna Marzi, Andrea Gasparella

Summary

This study analyzed the acoustic and sound radiation properties of cross-laminated timber (CLT) floor systems to address noise insulation challenges in this increasingly popular sustainable building material. The findings are relevant to construction engineering rather than environmental contamination.

Cross-Laminated Timber (CLT) is a building technology that is becoming increasingly popular due to its sustainable and eco-friendly nature, as well as its availability. Nevertheless, CLT presents some challenges, especially in terms of impact noise and airborne sound insulation. For this reason, many studies focus on the vibro-acoustic behavior of CLT building elements, to understand their performance, advantages and limitations. In this paper, a 200 mm CLT floor has been characterized in the laboratory, according to ISO standards, by three noise sources: dodecahedron, standard tapping machine and rubber ball. In order to understand the vibro-acoustic behavior of the CLT floor, measurements through the analysis of sound pressure levels and velocity levels, measured by dedicated sensors, were performed. Analysis was carried out in order to understand what is prescribed by the prediction methods available in the literature and by the simulation software. Then, a specific prediction law for the CLT floor under investigation was derived. Finally, an analysis on sound radiation index is provided to complete the vibro-acoustic study.

Sign in to start a discussion.

More Papers Like This

Article Tier 2

Primary study of plastic micro fibre waste for sound absorption applications

Researchers evaluated plastic microfiber waste as a sound absorption material, finding it shows some acoustic performance potential. While focused on acoustic engineering, the study explores a possible end use for recycled plastic fiber waste that would otherwise contribute to microplastic pollution.

Article Tier 2

Sound Absorption Properties Evaluation and Analysis of Recycled Tyre Textile Fibre Waste

This study evaluated the sound absorption properties of recycled tire textile fiber waste as a potential acoustic insulation material. Recycling tire-derived fibers that would otherwise fragment into microplastic tire wear particles represents a beneficial alternative use for this material.

Article Tier 2

Investigation of the sound-absorbing performances of pure coffee grounds

This study tested pure coffee grounds as a natural, eco-friendly sound-absorbing material. Researchers found that coffee grounds had meaningful sound absorption properties, particularly at higher frequencies. Repurposing coffee waste as a building material could substitute for petroleum-based foam sound absorbers that can shed microplastics.

Article Tier 2

Evaluation of particle generation due to deterioration of flooring in schools.

A simulated school-day experiment tested particle release from different flooring materials under repeated foot traffic, finding that some floor types generate substantial quantities of fine particulate matter, including plastic-containing particles, that may affect indoor air quality for children.

Article Tier 2

Acoustic and thermal characterization of a novel sustainable material incorporating recycled microplastic waste

Researchers created a new eco-friendly foam material by embedding recovered marine microplastics into a bio-based matrix, producing an open-cell insulating material with strong acoustic and thermal properties. The innovation offers a potential path to upcycle hard-to-recycle mixed marine plastic waste into useful building and industrial insulation products.

Share this paper