M. Iftikhar Hussain

Dr. M. Iftikhar Hussain


Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

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

Representative Publications

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21 December 2015 in Agronomy for Sustainable Development
Verified
Journal Article
Closed access
MHM. Iftikhar Hussain
M. Iftikhar Hussain
Dionysia Angeliki LyraDionysia Angeliki Lyra
Dionysia Angeliki Lyra
MFMuhammad Farooq
Muhammad Farooq
NIKOLAOS NIKOLOUDAKISNIKOLAOS NIKOLOUDAKIS
NIKOLAOS NIKOLOUDAKIS
DKDr Nauman Khalid
Dr Nauman Khalid

1 November 2016 in Chemosphere
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Journal Article
Closed access
AQAsad Sarwar Qureshi
Asad Sarwar Qureshi
MHM. Iftikhar Hussain
M. Iftikhar Hussain
SIShoaib Ismail
Shoaib Ismail
QKQaisar Mehmood Khan
Qaisar Mehmood Khan

1 August 2017 in Trends in Food Science & Technology
Verified
Journal Article
Closed access
DKDr Nauman Khalid
Dr Nauman Khalid
RKRao Sanaullah Khan
Rao Sanaullah Khan
MHM. Iftikhar Hussain
M. Iftikhar Hussain
MFMuhammad Farooq
Muhammad Farooq
AAAsif Ahmad
Asif Ahmad
Iftikhar AhmedIftikhar Ahmed
Iftikhar Ahmed

27 May 2020 in Environmental Science and Pollution Research
Verified
Journal Article
Closed access
PDF file
MHM. Iftikhar Hussain
M. Iftikhar Hussain
MFMuhammad Farooq
Muhammad Farooq
AMAdele Muscolo
Adele Muscolo
ARAbdul Rehman
Abdul Rehman

27 December 2020 in Plants
Verified
Journal Article
Open access
PDF file
AKAdeel Khan
Adeel Khan
MAMunir Ahmad
Munir Ahmad
Mukhtar AhmedMukhtar Ahmed
Mukhtar Ahmed
MHM. Iftikhar Hussain
M. Iftikhar Hussain
Temperature across the globe is increasing continuously at the rate of 0.15–0.17 °C per decade since the industrial revolution. It is influencing agricultural crop productivity. Therefore, thermotolerance strategies are needed to have sustainability in crop yield under higher temperature. However, improving thermotolerance in the crop is a challenging task for crop scientists. Therefore, this review work was conducted with the aim of providing information on the wheat response in three research areas, i.e., physiology, breeding, and advances in genetics, which could assist the researchers in improving thermotolerance. The optimum temperature for wheat growth at the heading, anthesis, and grain filling duration is 16 ± 2.3 °C, 23 ± 1.75 °C, and 26 ± 1.53 °C, respectively. The high temperature adversely influences the crop phenology, growth, and development. The pre-anthesis high temperature retards the pollen viability, seed formation, and embryo development. The post-anthesis high temperature declines the starch granules accumulation, stem reserve carbohydrates, and translocation of photosynthates into grains. A high temperature above 40 °C inhibits the photosynthesis by damaging the photosystem-II, electron transport chain, and photosystem-I. Our review work highlighted that genotypes which can maintain a higher accumulation of proline, glycine betaine, expression of heat shock proteins, stay green and antioxidant enzymes activity viz., catalase, peroxidase, super oxide dismutase, and glutathione reductase can tolerate high temperature efficiently through sustaining cellular physiology. Similarly, the pre-anthesis acclimation with heat treatment, inorganic fertilizer such as nitrogen, potassium nitrate and potassium chloride, mulches with rice husk, early sowing, presoaking of a 6.6 mM solution of thiourea, foliar application of 50 ppm dithiothreitol, 10 mg per kg of silicon at heading and zinc ameliorate the crop against the high temperature. Finally, it has been suggested that modern genomics and omics techniques should be used to develop thermotolerance in wheat.

9 June 2011 in Journal of Experimental Botany
Verified
Journal Article
Open access
PDF file
MHM. Iftikhar Hussain
M. Iftikhar Hussain
Manuel Joaquín Reigosa-RogerManuel Joaquín Reigosa-Roger
Manuel Joaquín Reigosa-Roger
In this study, the effect of two allelochemicals, benzoxazolin-2(3H)-one (BOA) and cinnamic acid (CA), on different physiological and morphological characteristics of 1-month-old C3 plant species (Dactylis glomerata, Lolium perenne, and Rumex acetosa) was analysed. BOA inhibited the shoot length of D. glomerata, L. perenne, and R. acetosa by 49%, 19%, and 19% of the control. The root length of D. glomerata, L. perenne, and R. acetosa growing in the presence of 1.5 mM BOA and CA was decreased compared with the control. Both allelochemicals (BOA, CA) inhibited leaf osmotic potential (LOP) in L. perenne and D. glomerata. In L. perenne, Fv/Fm decreased after treatment with BOA (1.5 mM) while CA (1.5 mM) also significantly reduced Fv/Fm in L. perenne. Both allelochemicals decreased ΦPSII in D. glomerata and L. perenne within 24 h of treatment, while in R. acetosa, ΦPSII levels decreased by 72 h following treatment with BOA and CA. There was a decrease in qP and NPQ on the first, fourth, fifth, and sixth days after treatment with BOA in D. glomerata, while both allelochemicals reduced the qP level in R. acetosa. There was a gradual decrease in the fraction of light absorbed by PSII allocated to PSII photochemistry (P) in R. acetosa treated with BOA and CA. The P values in D. glomerata were reduced by both allelochemicals and the portion of absorbed photon energy that was thermally dissipated (D) in D. glomerata and L. perenne was decreased by BOA and CA. Photon energy absorbed by PSII antennae and trapped by ‘closed’ PSII reaction centres (E) was decreased after CA exposure in D. glomerata. BOA and CA (1.5 mM concentration) decreased the leaf protein contents in all three perennial species. This study provides new understanding of the physiological and biochemical mechanisms of action of BOA and CA in one perennial dicotyledon and two perennial grasses. The acquisition of such knowledge may ultimately provide a rational and scientific basis for the design of safe and effective herbicides.