Mo Chen

Mr. Mo Chen

orcid

Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

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

Representative Publications

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26 May 2017 in Environmental Science & Technology
Verified
Journal Article
Closed access
FZFanrong Zhao
Fanrong Zhao
MCMo Chen
Mo Chen
FGFumei Gao
Fumei Gao
HSHuan Shen
Huan Shen
JHJianying Hu
Jianying Hu

31 December 2015 in Environmental Science & Technology
Verified
Journal Article
Closed access
MCMo Chen
Mo Chen
ZFZhanlan Fan
Zhanlan Fan
FZFanrong Zhao
Fanrong Zhao
FGFumei Gao
Fumei Gao
DMDi Mu
Di Mu
JHJianying Hu
Jianying Hu

22 May 2015 in Environmental Science & Technology
Verified
Journal Article
Closed access
YZYuyin Zhou
Yuyin Zhou
MCMo Chen
Mo Chen
FZFanrong Zhao
Fanrong Zhao
DMDi Mu
Di Mu
ZZZhaobin Zhang
Zhaobin Zhang
JHJianying Hu
Jianying Hu


19 May 2020 in Environmental Research Letters
Verified
Journal Article
Open access
PDF file
MCMo Chen
Mo Chen
GBGeorge Ban-Weiss
George Ban-Weiss
KSKelly Twomey Sanders
Kelly Twomey Sanders
Extreme heat events are increasing in frequency and intensity, challenging electricity infrastructure due to growing cooling demand and posing public health risks to urbanites. In order to minimize risks from increasing extreme heat, it is critical to (a) project increases in electricity use with urban warming, and (b) identify neighborhoods that are most vulnerable due in part to a lack of air conditioning (AC) and inability to afford increased energy. Here, we utilize smart meter data from 180 476 households in Southern California to quantify increases in residential electricity use per degree warming for each census tract. We also compute AC penetration rates, finding that air conditioners are less prevalent in poorer census tracts. Utilizing climate change projections for end of century, we show that 55% and 30% of the census tracts identified as most vulnerable are expected to experience more than 16 and 32 extreme heat days per year, respectively.

14 December 2016 in Sustainability
Verified
Journal Article
Open access
PDF file
MMMeasrainsey Meng
Measrainsey Meng
MCMo Chen
Mo Chen
KSKelly Twomey Sanders
Kelly Twomey Sanders
The current California drought has reduced freshwater availability, creating tensions between water users across the state. Although over 518 million m 3 of water were produced during fossil fuel production in California in 2014, the majority was disposed into Class II injection wells. There have been few attempts to assess the feasibility of using produced water for beneficial purposes, due in part to the difficulties of accessing, synthesizing and analyzing data regarding produced water quality and quantity. This study addresses this gap and provides a techno-economic assessment of upgrading produced water from California’s oil and natural gas activities and moving it to adjacent water-stressed regions. Results indicate that the four population centers facing the greatest water shortage risk are located in the Central Valley within a 161 km (100 mile) radius of 230 million m 3 of total treatable produced water. This volume can supply up to one million people-years worth of potable water. The cost of desalinating and transporting this water source is comparable in magnitude to some agricultural and local public water supplies and is substantially lower than bottled water. Thus, utilizing reverse osmosis to treat produced water might be a feasible solution to help relieve water scarcity in some drought-stricken regions of California.