Abstract
Conventional fossil fuels are relied on heavily to meet the ever-increasing demand for energy required by human activities. However, their usage generates significant air pollutant emissions, such as NOx, SOx, and particulate matter. As a result, a complete air pollutant control system is necessary. However, the intensive operation of such systems is expected to cause deterioration and reduce their efficiency. Therefore, this study evaluates the current air pollutant control configuration of a coal-powered plant and proposes an upgraded system. Using a year-long dataset of air pollutants collected at 30-min intervals from the plant's telemonitoring system, untreated flue gas was reconstructed with a variational autoencoder. Subsequently, a superstructure model with various technology options for treating NOx, SOx, and particulate matter was developed. The most sustainable configuration, which included reburning, desulfurization with seawater, and dry electrostatic precipitator, was identified using an artificial intelligence (AI) model to meet economic, environmental, and reliability targets. Finally, the proposed system was evaluated using a Monte Carlo simulation to assess various scenarios with tightened discharge limits. The untreated flue gas was then evaluated using the most sustainable air pollutant control configuration, which demonstrated a total annual cost, environmental quality index, and reliability indices of 44.1 × 106 USD/year, 0.67, and 0.87, respectively. © 2023 Elsevier Ltd
Original language | British English |
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Journal | Environ. Pollut. |
Volume | 335 |
DOIs | |
State | Published - 2023 |
Keywords
- Air pollutant control
- Data augmentation
- Monte-carlo simulation
- P-Graph
- Sustainability enhancement
- Air Pollutants
- Air Pollution
- Artificial Intelligence
- Coal
- Humans
- Particulate Matter
- Power Plants
- Reproducibility of Results
- Air pollution control
- Air quality
- Coal fired boilers
- Coal fueled furnaces
- Deterioration
- Electrostatic precipitators
- Flue gases
- Fossil fuel power plants
- Intelligent systems
- Monte Carlo methods
- Nitrogen oxides
- Particles (particulate matter)
- Quality control
- Sustainable development
- coal
- nitrogen oxide
- sea water
- sulfur dioxide
- Air pollutants
- Control configuration
- Monte Carlo's simulation
- NO x
- P-graphs
- Pollutant control
- Sustainability enhancements
- artificial intelligence
- atmospheric pollution
- coal-fired power plant
- control system
- nitrogen dioxide
- particulate matter
- pollution control
- sustainability
- air pollution
- air pollution control
- air quality
- Article
- chemical reaction
- conceptual framework
- desulfurization
- electric power plant
- environmental impact
- environmental parameters
- environmental policy
- environmental quality index
- environmental sustainability
- flue gas
- Fourier transform
- greenhouse gas emission
- human
- manufacturing industry
- Monte Carlo method
- reburning
- reliability
- air pollutant
- prevention and control
- reproducibility
- Coal fired power plant