Wei-Qiang Chen

Wei-Qiang Chen

orcid

Research Focus & Metrics

Academic Career Length

11Years (2016-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
6 April 2021 in Nature Communications
Verified
Journal Article
Open access
PDF file
PWPeng Wang
Peng Wang
Morten Walbech RybergMorten Walbech Ryberg
Morten Walbech Ryberg
YYYi Yang
Yi Yang
KFKuishuang Feng
Kuishuang Feng
SKSami Kara
Sami Kara
WCWei-Qiang Chen
Wei-Qiang Chen
Steel production is a difficult-to-mitigate sector that challenges climate mitigation commitments. Efforts for future decarbonization can benefit from understanding its progress to date. Here we report on greenhouse gas emissions from global steel production over the past century (1900-2015) by combining material flow analysis and life cycle assessment. We find that ~45 Gt steel was produced in this period leading to emissions of ~147 Gt CO2-eq. Significant improvement in process efficiency (~67%) was achieved, but was offset by a 44-fold increase in annual steel production, resulting in a 17-fold net increase in annual emissions. Despite some regional technical improvements, the industry’s decarbonization progress at the global scale has largely stagnated since 1995 mainly due to expanded production in emerging countries with high carbon intensity. Our analysis of future scenarios indicates that the expected demand expansion in these countries may jeopardize steel industry’s prospects for following 1.5 °C emission reduction pathways. To achieve the Paris climate goals, there is an urgent need for rapid implementation of joint supply- and demand-side mitigation measures around the world in consideration of regional conditions.

4 March 2023 in Nature Communications
Verified
Journal Article
Open access
PDF file
HWHetong Wang
Hetong Wang
KFKuishuang Feng
Kuishuang Feng
PWPeng Wang
Peng Wang
YYYuyao Yang
Yuyao Yang
LSLaixiang Sun
Laixiang Sun
JLJiashuo Li
Jiashuo Li
The adoption of electric vehicles (EVs) on a large scale is crucial for meeting the desired climate commitments, where affordability plays a vital role. However, the expected surge in prices of lithium, cobalt, nickel, and manganese, four critical materials in EV batteries, could hinder EV uptake. To explore these impacts in the context of China, the world’s largest EV market, we expand and enrich an integrated assessment model. We find that under a high material cost surge scenario, EVs would account for 35% (2030) and 51% (2060) of the total number of vehicles in China, significantly lower than 49% (2030) and 67% (2060) share in the base-line, leading to a 28% increase in cumulative carbon emissions (2020-2060) from road transportation. While material recycling and technical battery innovation are effective long-term countermeasures, securing the supply chains of critical materials through international cooperation is highly recommended, given geopolitical and environmental fragilities.

9 April 2021 in Journal of Industrial Ecology
Verified
Journal Article
Closed access
PDF file
CWChunyan Wang
Chunyan Wang
YLYi Liu
Yi Liu
WCWei-Qiang Chen
Wei-Qiang Chen
BZBing Zhu
Bing Zhu
Shen QuShen Qu
Shen Qu
MXMing Xu
Ming Xu

4 January 2024 in Nature Geoscience
Verified
Journal Article
Closed access
PDF file
PWPeng Wang
Peng Wang
YYYu-Yao Yang
Yu-Yao Yang
Oliver HeidrichOliver Heidrich
Oliver Heidrich
LCLi-Yang Chen
Li-Yang Chen
LCLi-Hua Chen
Li-Hua Chen
WCWei-Qiang Chen
Wei-Qiang Chen

28 October 2024 in Nature Computational Science
Verified
Journal Article
Closed access
PDF file
PWPeng Wang
Peng Wang
LZLing-Yu Zhang
Ling-Yu Zhang
ATAsaf Tzachor
Asaf Tzachor
WCWei-Qiang Chen
Wei-Qiang Chen

18 February 2022 in Journal of Environmental Management
Verified
Journal Article
Closed access
YSYing Sun
Ying Sun
SLShuang Liu
Shuang Liu
PWPeng Wang
Peng Wang
XJXiaomei Jian
Xiaomei Jian
XLXiawei Liao
Xiawei Liao
WCWei-Qiang Chen
Wei-Qiang Chen