Logesh Shanmugam

Dr. Logesh Shanmugam

orcid

Research Focus & Metrics

Academic Career Length

8Years (2019-Present)

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

Representative Publications

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1 October 2019 in Composites Part A: Applied Science and Manufacturing
Verified
Journal Article
Closed access
MKM.E. Kazemi
M.E. Kazemi
LSLogesh Shanmugam
Logesh Shanmugam
DLDong Lu
Dong Lu
XWXiaogang Wang
Xiaogang Wang
BWBowei Wang
Bowei Wang
JYJinglei Yang
Jinglei Yang

1 April 2019 in Composites Science and Technology
Verified
Journal Article
Closed access
LSLogesh Shanmugam
Logesh Shanmugam
XFXiaming Feng
Xiaming Feng
JYJinglei Yang
Jinglei Yang

1 January 2020 in Composites Part A: Applied Science and Manufacturing
Verified
Journal Article
Closed access
MKM.E. Kazemi
M.E. Kazemi
LSLogesh Shanmugam
Logesh Shanmugam
LYLei Yang
Lei Yang
JYJinglei Yang
Jinglei Yang

1 October 2020 in Composite Structures
Verified
Journal Article
Closed access
MKM.E. Kazemi
M.E. Kazemi
LSLogesh Shanmugam
Logesh Shanmugam
ZLZhonghong Li
Zhonghong Li
RMRui Ma
Rui Ma
LYLei Yang
Lei Yang
JYJinglei Yang
Jinglei Yang

1 December 2019 in Composites Part B: Engineering
Verified
Journal Article
Closed access
LSLogesh Shanmugam
Logesh Shanmugam
MKM.E. Kazemi
M.E. Kazemi
ZRZaiqing Rao
Zaiqing Rao
DLDong Lu
Dong Lu
XWXiaogang Wang
Xiaogang Wang
JYJinglei Yang
Jinglei Yang

30 January 2019 in Journal of Materials Chemistry A
Verified
Journal Article
Closed access
PDF file
XFXiaming Feng
Xiaming Feng
JZJinliang Zhao
Jinliang Zhao
DSDawei Sun
Dawei Sun
LSLogesh Shanmugam
Logesh Shanmugam
JKJang-Kyo Kim
Jang-Kyo Kim
JYJinglei Yang
Jinglei Yang
Graphene aerogel has attracted great attention due to its unique properties in solar vapor generation for water purification and desalination. However, many challenges remain in promoting their development and practical application, such as scalable fabrication and facile use in a large area of water. Herein, we report a simple self-assembly approach to prepare onion-like graphene aerogel beads on a millimeter scale. The floatable, low-density graphene aerogel beads are used to promote water evaporation under non-concentrated illumination for the first time. MoS2 microflakes with a strong light absorption capability in the visible and near-infrared regions are incorporated to form hybrid beads with a much enhanced water evaporation performance. A record steam generation efficiency of 74% is obtained under illumination of only 0.5 kW m−2 with a single layer of hybrid beads, corresponding to a remarkable evaporation rate of 0.54 kg m−2 h−1. When scaled up to a 0.05 m2 active area in a home-made solar water still for use in an outdoor environment, the hybrid beads are easily dispersed on the water surface by self-spreading action. Their freshwater generation rate is about 2.0 L m−2 day−1 on a typical spring day in Hong Kong, which is sufficient to satisfy the daily drinking needs of a person. By simultaneously addressing both the requirements of high-efficiency operation and facile fabrication, the graphene aerogel beads developed in this study may offer a viable solution for drinking water problems in water-stressed regions.