Document Types
Paper Presentation
School Name
Adamson University
Research Advisor (Last Name, First Name, Middle Initial)
Gurtiza, John Albert Dupaya
Abstract/Executive Summary
This study investigates the adsorption of bamboo charcoal padding (BCP) in reducing indoor PM 2.5 levels, aligning with Sustainable Development Goal 3. PM 2.5 concentrations highly pose a risk to human health. Therefore, this study highlights the effectiveness of BCP as an air filter. The methodology employs a quasi-experimental design, specifically the time-series method. With a dependent t-test analysis, the study shows a statistically significant difference in pre- and post-filtration, proving carbon filters, such as BCP, as a reliable material within the context of air filtration. Results indicate a significant decrease in AQI post-filtration (p = 0.030), affirming BCP's effectiveness in reducing PM 2.5. Despite potential inconsistencies due to external factors, BCP demonstrates significant capacity for air purification, supporting its utilization as an air filters in close-ventilated environments. Therefore, this study contributes to the innovative solution for reducing air pollution, specifically PM 2.5 within a closed-ventilated environment.
Keywords
bamboo charcoal; air quality index; particulate matter; lavatories; adsorption
Research Theme (for Paper Presentation and Poster Presentation submissions only)
Sustainability, Environment, and Energy (SEE)
Initial Consent for Publication
yes
Statement of Originality
yes
PM 2.5 Adsorption by Bamboo Charcoal Padding in a Close- Ventilated Environment: Air Quality Index Assessment
This study investigates the adsorption of bamboo charcoal padding (BCP) in reducing indoor PM 2.5 levels, aligning with Sustainable Development Goal 3. PM 2.5 concentrations highly pose a risk to human health. Therefore, this study highlights the effectiveness of BCP as an air filter. The methodology employs a quasi-experimental design, specifically the time-series method. With a dependent t-test analysis, the study shows a statistically significant difference in pre- and post-filtration, proving carbon filters, such as BCP, as a reliable material within the context of air filtration. Results indicate a significant decrease in AQI post-filtration (p = 0.030), affirming BCP's effectiveness in reducing PM 2.5. Despite potential inconsistencies due to external factors, BCP demonstrates significant capacity for air purification, supporting its utilization as an air filters in close-ventilated environments. Therefore, this study contributes to the innovative solution for reducing air pollution, specifically PM 2.5 within a closed-ventilated environment.
