Zheng Wang

Prof. Zheng Wang

Delft University of Technology
+1
orcid

Research Focus & Metrics

Academic Career Length

41Years (1986-Present)

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

Representative Publications

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7 December 2005 in Journal of Geophysical Research: Earth Surface
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Journal Article
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STS. Temmerman
S. Temmerman
TBT. J. Bouma
T. J. Bouma
GGG. Govers
G. Govers
Zheng WangZheng Wang
Zheng Wang
MVM. B. De Vries
M. B. De Vries
PHPeter Herman
Peter Herman

1 December 2013 in Global and Planetary Change
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Journal Article
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JHJochen Hinkel
Jochen Hinkel
RNRobert Nicholls
Robert Nicholls
RTRichard Tol
Richard Tol
Zheng WangZheng Wang
Zheng Wang
JHJacqueline M. Hamilton
Jacqueline M. Hamilton
RKRichard J.T. Klein
Richard J.T. Klein

1 April 2009 in Journal of Marine Systems
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Journal Article
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Kelin HuKelin Hu
Kelin Hu
PDPingxing Ding
Pingxing Ding
Zheng WangZheng Wang
Zheng Wang
SYShilun Yang
Shilun Yang

15 April 2015 in Journal of Geophysical Research: Oceans
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Journal Article
Open access
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LGLeicheng Guo
Leicheng Guo
MWMick van der Wegen
Mick van der Wegen
DJDavid A. Jay
David A. Jay
PMPascal Matte
Pascal Matte
Zheng WangZheng Wang
Zheng Wang
QHQing He
Qing He
River‐tide dynamics remain poorly understood, in part because conventional harmonic analysis (HA) does not cope effectively with nonstationary signals. To explore nonstationary behavior of river tides and the modulation effects of river discharge, this work analyzes tidal signals in the Yangtze River estuary using both HA in a nonstationary mode and continuous wavelet transforms (CWT). The Yangtze is an excellent natural laboratory to analyze river tides because of its high and variable flow, its length, and the fact that there are do dams or reflecting barriers within the tidal part of the system. Analysis of tidal frequencies by CWT and analysis of subtidal water level and tidal ranges reveal a broad range of subtidal variations over fortnightly, monthly, semiannual, and annual frequencies driven by subtidal variations in friction and by variable river discharges. We employ HA in a nonstationary mode (NSHA) by segregating data within defined flow ranges into separate analyses. NSHA quantifies the decay of the principal tides and the modulation of M4 tide with increasing river discharges. M4 amplitudes decrease far upriver (landward portion of the estuary) and conversely increase close to the ocean as river discharge increases. The fortnightly frequencies reach an amplitude maximum upriver of that for over tide frequencies, due to the longer wavelength of the fortnightly constituents. These methods and findings should be applicable to large tidal rivers globally and have broad implications regarding management of navigation channels and ecosystems in tidal rivers.

13 November 2013 in Ocean Dynamics
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JWJohan C. Winterwerp
Johan C. Winterwerp
Zheng WangZheng Wang
Zheng Wang
ABAlexander van Braeckel
Alexander van Braeckel
GHGijsbert van Holland
Gijsbert van Holland
Frank KöstersFrank Kösters
Frank Kösters

1 February 2011 in Earth and Planetary Science Letters
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Journal Article
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NGNathanaël Geleynse
Nathanaël Geleynse
JSJoep E.A. Storms
Joep E.A. Storms
DWDirk-Jan R. Walstra
Dirk-Jan R. Walstra
HJH.R. Albert Jagers
H.R. Albert Jagers
Zheng WangZheng Wang
Zheng Wang
Marcel J.F. StiveMarcel J.F. Stive
Marcel J.F. Stive