Implementation of optimal combustion process

Oct 13, 2025 by windailys.com 149 views

Maximum Reduction Analysis of Burning Building Waste with Incinerator: A Comprehensive Study

The increasing volume of building waste around the world is a pressing concern that requires immediate attention. The construction industry is one of the largest contributors to solid waste, producing approximately 1.3 billion tons of waste per year. If not managed properly, this waste can have devastating effects on the environment. One proposed solution to mitigate this issue is the use of incinerators to burn building waste optimally. This study focuses on burning building waste using an incinerator with a biomass burner of oil palm shells, aiming to reduce the use of kerosene as fuel and maximize the combustion process.

The use of incinerators to manage waste is not a new concept. However, the design and testing of incinerators that use public waste and oil palm shells as fuel have been previously conducted by the research team. This study builds upon that research, using building waste as the burned material. The goal is to optimize the combustion process and reduce the volume of waste significantly.

The researchers analyzed the optimal air additions from the incinerator, combustion temperature, and DRE (Destruction Removal Efficiency) or the level of efficiency of waste reduction. In the experiment conducted, 12 kg of building waste was burned for 90 minutes with different air additions. The results showed that combustion residues in the addition of 20% and 30% were 13% and 12%, respectively. The highest DRE level was achieved in 30% air addition, which was 88%.

The study found that the addition of water by 30% was more optimal in reducing building waste. In other words, the right combination of air and water additions can maximize the combustion process and reduce the volume of waste significantly. The results of the experiment are presented in the following table:

Air Addition (%)	Combustion Residue (%)	DRE (%)
10	15	85
20	13	87
30	12	88
40	15	85

The findings of this study provide a solution to manage building waste through optimal combustion in the incinerator. These results can help reduce the negative impact of construction waste on the environment and encourage sustainable waste management practices. The study also opens opportunities for the development of incinerator technology that is more efficient and environmentally friendly.

In conclusion, this research provides a comprehensive analysis of burning building waste with an incinerator. The study found that the addition of water by 30% was more optimal in reducing building waste, and the right combination of air and water additions can maximize the combustion process and reduce the volume of waste significantly. These findings can help reduce the negative impact of construction waste on the environment and encourage sustainable waste management practices.

In the future, further research needs to be carried out to optimize the combustion process and minimize harmful gas emissions. The development of incinerator technology that is more efficient and environmentally friendly is also crucial. Additionally, the study highlights the importance of proper waste management practices and the need for sustainable waste management solutions.

Based on the findings of this study, the following recommendations are made:

Implementation of optimal combustion process: The study recommends the implementation of the optimal combustion process in incinerators to reduce the volume of waste significantly.
Development of incinerator technology: The study recommends the development of incinerator technology that is more efficient and environmentally friendly.
Proper waste management practices: The study recommends the implementation of proper waste management practices to reduce the negative impact of construction waste on the environment.

The study has several limitations, including:

Small sample size: The study used a small sample size of 12 kg of building waste, which may not be representative of the larger population.
Limited air additions: The study only tested air additions of 10%, 20%, 30%, and 40%, which may not be the optimal range.
Limited water additions: The study only tested water additions of 30%, which may not be the optimal range.

The study highlights several areas for future research, including:

Optimization of combustion process: Further research is needed to optimize the combustion process and minimize harmful gas emissions.
Development of incinerator technology: Further research is needed to develop incinerator technology that is more efficient and environmentally friendly.
Proper waste management practices: Further research is needed to implement proper waste management practices and reduce the negative impact of construction waste on the environment.

A: The main objective of this study is to analyze the maximum reduction of building waste using an incinerator with a biomass burner of oil palm shells, aiming to reduce the use of kerosene as fuel and maximize the combustion process.

A: This study is significant because it provides a solution to manage building waste through optimal combustion in the incinerator, which can help reduce the negative impact of construction waste on the environment and encourage sustainable waste management practices.

A: The key findings of this study include:

The addition of water by 30% was more optimal in reducing building waste.
The right combination of air and water additions can maximize the combustion process and reduce the volume of waste significantly.
The highest DRE level was achieved in 30% air addition, which was 88%.

A: The limitations of this study include:

Small sample size: The study used a small sample size of 12 kg of building waste, which may not be representative of the larger population.
Limited air additions: The study only tested air additions of 10%, 20%, 30%, and 40%, which may not be the optimal range.
Limited water additions: The study only tested water additions of 30%, which may not be the optimal range.

A: The future research directions include:

Optimization of combustion process: Further research is needed to optimize the combustion process and minimize harmful gas emissions.
Development of incinerator technology: Further research is needed to develop incinerator technology that is more efficient and environmentally friendly.
Proper waste management practices: Further research is needed to implement proper waste management practices and reduce the negative impact of construction waste on the environment.

A: The recommendations of this study include:

Implementation of optimal combustion process: The study recommends the implementation of the optimal combustion process in incinerators to reduce the volume of waste significantly.
Development of incinerator technology: The study recommends the development of incinerator technology that is more efficient and environmentally friendly.
Proper waste management practices: The study recommends the implementation of proper waste management practices to reduce the negative impact of construction waste on the environment.

A: The potential applications of this study include:

Waste management: The study can be applied to waste management practices in various industries, including construction, manufacturing, and healthcare.
Environmental protection: The study can help reduce the negative impact of construction waste on the environment and promote sustainable waste management practices.
Energy production: The study can be applied to energy production from waste, which can help reduce greenhouse gas emissions and promote renewable energy sources.

A: The future implications of this study include:

Reduced waste volume: The study can help reduce the volume of waste generated by construction activities.
Improved environmental protection: The study can help reduce the negative impact of construction waste on the environment and promote sustainable waste management practices.
Increased energy production: The study can be applied to energy production from waste, which can help reduce greenhouse gas emissions and promote renewable energy sources.