Mohsin Tanveer

Dr. Mohsin Tanveer

Tasmanian Institute of Agriculture, Faculty of Science, Engineering and Technology, University of Tasmania, Tasmania 7001, Australia
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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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6 February 2017 in Frontiers in Plant Science
Verified
Journal Article
Open access
SAShakeel A. Anjum
Shakeel A. Anjum
UAUmair Ashraf
Umair Ashraf
Mohsin TanveerMohsin Tanveer
Mohsin Tanveer
IKImran Khan
Imran Khan
Saddam HussainSaddam Hussain
Saddam Hussain
LWLong C. Wang
Long C. Wang
Consequences of drought stress in crop production systems are perhaps more deleterious than other abiotic stresses under changing climatic scenario. Regulations in physio-biochemical responses under drought stress are crafted in to agronomic traits by the plants that can be used as markers for drought stress tolerance from selection and breeding point of view. Present study was conducted to appraise the performance of three different maize hybrids i.e., Dong Dan 80, Wan Dan 13 and Run Nong 35 under well watered, low, moderate and severe drought conditions maintained at 100, 80, 60 and 40% field capacities, respectively. Compared with well-watered, drought stress exhilarated oxidative stress in terms of reactive oxygen species (ROS) production which led to reduced growth and yield formation in all maize hybrids; nevertheless negative effects were more prominent in Run Nong 35. Drought-induced osmolyte accumulation and strong enzymatic and non-enzymatic defense system prevented severe damages in Dong Dan 80. Furthermore, in most of the cases correlations of ROS, omolytes and anti-oxidant defense system were found negative with shoot dry weight (SDW), grain yield (GY) and biological yield (BY) under drought conditions. Overall performance of all maize hybrids under drought stress was recorded as: Dong Dan 80 > Wan Dan 13 > Run Nong 35 with 6.39, 7.35 and 16.55% yield reductions. Consequently, these biochemical traits and differential physiological responses might be helpful to develop drought tolerance genotypes that can withstand against water-deficit conditions with minimum yield losses.

1 March 2018 in Agricultural Water Management
Verified
Journal Article
Closed access
MHMubshar Hussain
Mubshar Hussain
SFShahid Farooq
Shahid Farooq
WHWaseem Hasan
Waseem Hasan
SUSami Ul-Allah
Sami Ul-Allah
Mohsin TanveerMohsin Tanveer
Mohsin Tanveer
ANAhmad Nawaz
Ahmad Nawaz

1 November 2018 in Plant Physiology and Biochemistry
Verified
Journal Article
Closed access
Babar ShahzadBabar Shahzad
Babar Shahzad
Mohsin TanveerMohsin Tanveer
Mohsin Tanveer
ARAbdul Rehman
Abdul Rehman
Sardar Alam CheemaSardar Alam Cheema
Sardar Alam Cheema
SFShah Fahad
Shah Fahad
Anket SharmaAnket Sharma
Anket Sharma

21 January 2017 in Environmental Science and Pollution Research
Verified
Journal Article
Closed access
PDF file
ASAdnan Noor Shah
Adnan Noor Shah
Mohsin TanveerMohsin Tanveer
Mohsin Tanveer
Babar ShahzadBabar Shahzad
Babar Shahzad
GYGuozheng Yang
Guozheng Yang
SFShah Fahad
Shah Fahad
BSBiangkham Souliyanonh
Biangkham Souliyanonh

1 June 2016 in Plant Physiology and Biochemistry
Verified
Journal Article
Closed access
SFShah Fahad
Shah Fahad
Saddam HussainSaddam Hussain
Saddam Hussain
SSShah Saud
Shah Saud
SHShah Hassan
Shah Hassan
Mohsin TanveerMohsin Tanveer
Mohsin Tanveer
Jianliang HuangJianliang Huang
Jianliang Huang

1 January 2018 in Ecotoxicology and Environmental Safety
Verified
Journal Article
Closed access
Babar ShahzadBabar Shahzad
Babar Shahzad
Mohsin TanveerMohsin Tanveer
Mohsin Tanveer
ZCZhao Che
Zhao Che
Abdul RehmanAbdul Rehman
Abdul Rehman
Sardar Alam CheemaSardar Alam Cheema
Sardar Alam Cheema
DZDong Zhaorong
Dong Zhaorong