Anisul Haque

Prof. Anisul Haque


Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

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

Representative Publications

View All Publications
16 August 2016 in Climatic Change
Verified
Journal Article
Open access
PDF file
APAndres Payo
Andres Payo
AMAnirban Mukhopadhyay
Anirban Mukhopadhyay
SHSUGATA HAZRA
SUGATA HAZRA
TGTuhin Ghosh
Tuhin Ghosh
SGSubhajit Ghosh
Subhajit Ghosh
AHAnisul Haque
Anisul Haque
The Sundarbans mangrove ecosystem, located in India and Bangladesh, is recognized as a global priority for biodiversity conservation and is an important provider of ecosystem services such as numerous goods and protection against storm surges. With global mean sea-level rise projected as up to 0.98 m or greater by 2100 relative to the baseline period (1985–2005), the Sundarbans – mean elevation presently approximately 2 m above mean sea-level – is under threat from inundation and subsequent wetland loss; however the magnitude of loss remains unclear. We used remote and field measurements, geographic information systems and simulation modelling to investigate the potential effects of three sea-level rise scenarios on the Sundarbans within coastal Bangladesh. We illustrate how the Sea Level Affecting Marshes Model (SLAMM) is able to reproduce the observed area losses for the period 2000–2010. Using this calibrated model and assuming that mean sea-level is a better proxy than the SLAMM assumed mean lower low water for Mangrove area delineation, the estimated mangrove area net losses (relative to year 2000) are 81–178 km2, 111–376 km2 and 583–1393 km2 for relative sea-level rise scenarios to 2100 of 0.46 m, 0.75 m and 1.48 m, respectively and net subsidence of ±2.5 mm/year. These area losses are very small (<10 % of present day area) and significantly smaller than previous research has suggested. Our simulations also suggest that erosion rather than inundation may remain the dominant loss driver to 2100 under certain scenarios of sea-level rise and net subsidence. Only under the highest scenarios does inundation due to sea-level rise become the dominant loss process.

1 September 2019 in Science of The Total Environment
Verified
Journal Article
Closed access
Mohammed Sarfaraz Gani AdnanMohammed Sarfaraz Gani Adnan
Mohammed Sarfaraz Gani Adnan
AHAnisul Haque
Anisul Haque
JHJim W. Hall
Jim W. Hall

25 March 2010 in Natural Hazards
Verified
Journal Article
Closed access
PDF file
A.K.M Saiful IslamA.K.M Saiful Islam
A.K.M Saiful Islam
AHAnisul Haque
Anisul Haque
SBSujit Kumar Bala
Sujit Kumar Bala

1 January 2016 in International Journal of Environmental Science and Development
Verified
Journal Article
Open access
AHAnisul Haque
Anisul Haque
SUSumaiya
Sumaiya
MRMunsur Rahman
Munsur Rahman

Verified
Journal Article
Open access
PDF file
AAA.S.M. Alauddin Al Azad
A.S.M. Alauddin Al Azad
KMKazi Mita
Kazi Mita
MZMd. Wasif Zaman
Md. Wasif Zaman
MAMarin Akter
Marin Akter
TATansir Zaman Asik
Tansir Zaman Asik
MRMunsur Rahman
Munsur Rahman
Impact of storm surge largely varies depending on the tidal phase during the landfall of a tropical cyclone. This study investigates comparative variance in inundation condition and thrust force for an identical cyclone during low tide and high tide by applying a numerical model (Delft3D) and a semi-analytical model (DFM). A moderate strength cyclone, Mora, which made landfall on Bangladesh coast in May 2017 is selected to study its impact on land during low tide and high tide. Actual landfall time of Mora was during low tide. To study the impact of storm surge during high tide, a synthetic cyclone is created which has similar strength and track to that of Mora but makes landfall during high tide. The results show that inundation depth, inundation extent, and thrust force increase when a cyclone makes landfall during high tide compared to the condition when the cyclone makes landfall during low tide. But the relation between storm surge impact and tidal phase is not linear. It depends on the land topography of the location, direction of cyclone movement, direction and magnitude of water velocity and wind velocity, gradients of water surface and wind velocity, and proximity and position of the location with respect to cyclone track.

1 January 2006 in PROCEEDINGS OF HYDRAULIC ENGINEERING
Verified
Journal Article
Closed access
MRMunsur Rahman
Munsur Rahman
HNHajime Nakagawa
Hajime Nakagawa
NINaoki Ito
Naoki Ito
AHAnisul Haque
Anisul Haque
TITarekul Islam
Tarekul Islam
MHM. Mozzammel Hoque
M. Mozzammel Hoque