Leveraging the trend analysis for modeling of the greenhouse gas emissions associated with coal combustion

In this paper, it is aimed, for the first time, at deriving simple models, leveraging the trend analysis in order to estimate the future greenhouse gas emissions associated with coal combustion. Due to the expectations of becoming the center of global economic development in the future, BRICS-T (Brazil, the Russian Federation, India, China, South Africa, and Turkiye) countries are adopted as cases in the study. Following the models' derivation, their statistical validations and estimating accuracies are also tested through various metrics. In addition, the future greenhouse gas emissions associated with coal combustion are estimated by the derived models. The results demonstrate that the derived models can be successfully used as a tool for estimating the greenhouse gas emissions associated with coal combustions with accuracy ranges from at least 90% to almost 98%. Moreover, the estimating results show that the total amount of greenhouse gas emissions associated with coal combustions in the relevant countries and in the world will increase to 14 BtCO<sub>2eq</sub> and 19 BtCO<sub>2eq</sub> by 2035, with an annual growth of 2.39% and 1.71%, respectively. In summary, the current study's findings affirm the usefulness of trend analysis in deriving models to estimate greenhouse gas emissions associated with coal combustion.

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Publication Details

Journal
Environmental Science and Pollution Research
Published
2024-08-16
DOI
https://doi.org/10.1007/s11356-024-34654-3
Citations
39
Primary Topic
Atmospheric and Environmental Gas Dynamics
Type
article
Field-Weighted Citation Impact
11.02
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article

Leveraging the trend analysis for modeling of the greenhouse gas emissions associated with coal combustion

Gökhan Aydın, İzzet Karakurt, Büşra Demir Avci
39 citations
Environmental Science and Pollution Research
Atmospheric and Environmental Gas Dynamics
11.02
article

Leveraging the trend analysis for modeling of the greenhouse gas emissions associated with coal combustion

Gökhan Aydın, İzzet Karakurt, Büşra Demir Avci
article en
39 citations

Abstract

In this paper, it is aimed, for the first time, at deriving simple models, leveraging the trend analysis in order to estimate the future greenhouse gas emissions associated with coal combustion. Due to the expectations of becoming the center of global economic development in the future, BRICS-T (Brazil, the Russian Federation, India, China, South Africa, and Turkiye) countries are adopted as cases in the study. Following the models' derivation, their statistical validations and estimating accuracies are also tested through various metrics. In addition, the future greenhouse gas emissions associated with coal combustion are estimated by the derived models. The results demonstrate that the derived models can be successfully used as a tool for estimating the greenhouse gas emissions associated with coal combustions with accuracy ranges from at least 90% to almost 98%. Moreover, the estimating results show that the total amount of greenhouse gas emissions associated with coal combustions in the relevant countries and in the world will increase to 14 BtCO<sub>2eq</sub> and 19 BtCO<sub>2eq</sub> by 2035, with an annual growth of 2.39% and 1.71%, respectively. In summary, the current study's findings affirm the usefulness of trend analysis in deriving models to estimate greenhouse gas emissions associated with coal combustion.

Environmental Science and Pollution ResearchVol. 31(39)
Karadeniz Technical University (TR)
Openalex Percentile: Top 1%
Atmospheric and Environmental Gas Dynamics
11.02
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