Surface transport emission reduction strategy in Bhutan

This study analyzes the surface transport emission reduction strategy in Bhutan. Considering 100% Electric Vehicle (EV) development by 2050, the estimated emission reduction is calculated based on kilometers traveled for passenger vehicles and ton kilometers traveled for freight mobility in the year 2022. The calculated values show combustion engine vehicle emissions (CO2: 1145 Gt, CO: 29.8 Gt, SO2: 2.9 Gt, NOx: 12.1 Gt, N2O: 0.009 Gt, CH4: 0.104 Gt, NMVOC: 5.8 Gt, and PM2.5: 0.072 Gt) compared to 100% EV emissions (CO2: 276 Gt) in gigatons (Gt) in 2050, where other emission categories are completely removed during the operation life of EVs. However, to meet the emission reduction potential, various technical challenges are to be fulfilled, such as electrification of freight mobility, rural road infrastructure quality development, the high modal share of public transport service, and at least the provision of 2500 MW as a base load in the electric grid network. Furthermore, qualifying for zero emissions by 2050 requires regular data updates, which is a concern. Bhutan is uniquely positioned to achieve EV zero emissions as its power generation mix is almost 100% renewables based predominantly driven by hydropower.

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Publication Details

Journal
AIP Advances
Published
2025-02-01
DOI
https://doi.org/10.1063/5.0231197
Citations
3
Primary Topic
Environmental Impact and Sustainability
Type
article
Field-Weighted Citation Impact
2.40
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article

Surface transport emission reduction strategy in Bhutan

Talha Bin Nadeem, Hari Kumar Suberi, Mohammad Asif, Eckard Helmers
3 citations
AIP Advances
Environmental Impact and Sustainability
2.40
article

Surface transport emission reduction strategy in Bhutan

Talha Bin Nadeem, Hari Kumar Suberi, Mohammad Asif, Eckard Helmers
article en
3 citations

Abstract

This study analyzes the surface transport emission reduction strategy in Bhutan. Considering 100% Electric Vehicle (EV) development by 2050, the estimated emission reduction is calculated based on kilometers traveled for passenger vehicles and ton kilometers traveled for freight mobility in the year 2022. The calculated values show combustion engine vehicle emissions (CO2: 1145 Gt, CO: 29.8 Gt, SO2: 2.9 Gt, NOx: 12.1 Gt, N2O: 0.009 Gt, CH4: 0.104 Gt, NMVOC: 5.8 Gt, and PM2.5: 0.072 Gt) compared to 100% EV emissions (CO2: 276 Gt) in gigatons (Gt) in 2050, where other emission categories are completely removed during the operation life of EVs. However, to meet the emission reduction potential, various technical challenges are to be fulfilled, such as electrification of freight mobility, rural road infrastructure quality development, the high modal share of public transport service, and at least the provision of 2500 MW as a base load in the electric grid network. Furthermore, qualifying for zero emissions by 2050 requires regular data updates, which is a concern. Bhutan is uniquely positioned to achieve EV zero emissions as its power generation mix is almost 100% renewables based predominantly driven by hydropower.

AIP AdvancesVol. 15(2)
King Fahd University of Petroleum and Minerals (SA), Trier University of Applied Sciences (DE), NED University of Engineering and Technology (PK), Sustainable Energy Systems (United Kingdom) (GB), Royal University of Bhutan (BT)
Openalex Percentile: Top 14%
Environmental Impact and Sustainability
2.40
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