Mohammad Moinul Islam

Mr. Mohammad Moinul Islam

University of Western Australia, Perth, Western Australia, Australia
orcid

Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

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

Representative Publications

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19 September 2012 in BMC Genomics
Verified
Journal Article
Open access
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MIMd. Shahidul Islam
Md. Shahidul Islam
SHSamiul Haque
Samiul Haque
Mohammad Moinul IslamMohammad Moinul Islam
Mohammad Moinul Islam
EEEmdadul Mannan Emdad
Emdadul Mannan Emdad
AHAbdul Halim
Abdul Halim
MAMaqsudul Alam
Maqsudul Alam
Background: Macrophomina phaseolina is one of the most destructive necrotrophic fungal pathogens that infect more than 500 plant species throughout the world. It can grow rapidly in infected plants and subsequently produces a large amount of sclerotia that plugs the vessels, resulting in wilting of the plant. Results: We sequenced and assembled ~49 Mb into 15 super-scaffolds covering 92.83% of the M. phaseolina genome. We predict 14,249 open reading frames (ORFs) of which 9,934 are validated by the transcriptome. This phytopathogen has an abundance of secreted oxidases, peroxidases, and hydrolytic enzymes for degrading cell wall polysaccharides and lignocelluloses to penetrate into the host tissue. To overcome the host plant defense response, M. phaseolina encodes a significant number of P450s, MFS type membrane transporters, glycosidases, transposases, and secondary metabolites in comparison to all sequenced ascomycete species. A strikingly distinct set of carbohydrate esterases (CE) are present in M. phaseolina, with the CE9 and CE10 families remarkably higher than any other fungi. The phenotypic microarray data indicates that M. phaseolina can adapt to a wide range of osmotic and pH environments. As a broad host range pathogen, M. phaseolina possesses a large number of pathogen-host interaction genes including those for adhesion, signal transduction, cell wall breakdown, purine biosynthesis, and potent mycotoxin patulin. Conclusions: The M. phaseolina genome provides a framework of the infection process at the cytological and molecular level which uses a diverse arsenal of enzymatic and toxin tools to destroy the host plants. Further understanding of the M. phaseolina genome-based plant-pathogen interactions will be instrumental in designing rational strategies for disease control, essential to ensuring global agricultural crop production and security.

30 January 2017 in Nature Plants
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Journal Article
Open access
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MIMd. Shahidul Islam
Md. Shahidul Islam
JSJennifer A. Saito
Jennifer A. Saito
EEEmdadul Mannan Emdad
Emdadul Mannan Emdad
BABorhan Ahmed
Borhan Ahmed
Mohammad Moinul IslamMohammad Moinul Islam
Mohammad Moinul Islam
MAMaqsudul Alam
Maqsudul Alam
Jute (Corchorussp.) is one of the most important sources of natural fibre, covering ∼80% of global bast fibre production1. OnlyCorchorus olitoriusandCorchorus capsularisare commercially cultivated, though there are more than 100Corchorusspecies2in the Malvaceae family. Here we describe high-quality draft genomes of these two species and their comparisons at the functional genomics level to support tailor-designed breeding. The assemblies cover 91.6% and 82.2% of the estimated genome sizes forC. olitoriusandC. capsularis, respectively. In total, 37,031C. olitoriusand 30,096C. capsularisgenes are identified, and most of the genes are validated by cDNA and RNA-seq data. Analyses of clustered gene families and gene collinearity show that jute underwent shared whole-genome duplication ∼18.66 million years (Myr) ago prior to speciation. RNA expression analysis from isolated fibre cells reveals the key regulatory and structural genes involved in fibre formation. This work expands our understanding of the molecular basis of fibre formation laying the foundation for the genetic improvement of jute.

21 December 2021 in Agronomy
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Journal Article
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Mohammad Moinul IslamMohammad Moinul Islam
Mohammad Moinul Islam
Zdenko RengelZdenko Rengel
Zdenko Rengel
PSPaul Storer
Paul Storer
Kadambot SiddiqueKadambot Siddique
Kadambot Siddique
Zakaria M. SolaimanZakaria M. Solaiman
Zakaria M. Solaiman
Seed germination and seedling growth are two essential early determinants of subsequent crop yield and quality. A high germination percentage of industrial hemp (Cannabis sativa L.) seed is required to import into Australia. The viability of hemp seed can decline rapidly depending on storage and other factors; hence, the quality of imported seed is not always reliable. Here, we aimed to investigate germination and early seedling growth responses of 14 industrial hemp varieties after being imported from various countries. Germination trials were conducted with 100 seeds of 14 varieties using a soil-less Petri dish assay and a compost growth medium under glasshouse conditions. We also assessed the effect of seed pre-treatments such as gibberellic acid (500 and 1000 mg·L−1), chlorine dioxide (500 and 1000 mg·L−1) and cold temperature (4 °C for 72 h) using 300 seeds of each of the three selected varieties in compost growth medium. Hemp varieties imported from China had higher germination and better seedling growth indices than those imported from Europe. All seed pre-treatments were associated with a decreasing trend in germination, but a positive effect on early growth responses was observed. Our findings indicate that the hemp variety Han FNQ performed better than many other varieties did regarding seed germination and seedling growth. Hemp seeds sanitising with 500 mg·L−1 of chlorine dioxide might improve the germination and early growth of seedlings.

25 June 2025 in Sustainability
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Journal Article
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Mohammad Moinul IslamMohammad Moinul Islam
Mohammad Moinul Islam
Kadambot SiddiqueKadambot Siddique
Kadambot Siddique
Zakaria M. SolaimanZakaria M. Solaiman
Zakaria M. Solaiman
Hemp (Cannabis sativa L.) seeds have been essential for human nutrition for millennia. The products and by-products of hemp seeds are gaining popularity nowadays as food, feed and medicine for their high nutritional and nutraceutical properties. In parallel, concerns about phytate, an antinutritional compound limiting nutrient bioavailability in hemp seeds and seed meal are rising. Hemp seeds contain an array of nutrients, but their bioavailability is mostly unknown. Here, we report nutrient and phytate concentrations and phytate contents in source seeds and multiplied seeds of seven industrial hemp varieties. We estimated the bioavailability of specific nutrients based on calculated molar ratios of phytate to minerals. Seed multiplication was carried out in a phytotron using a compost-based growth medium. Five macronutrients (P, K, Mg, S, Ca), four micronutrients (Fe, Mn, Zn, Cu) and Cr were measured in seeds using ICP-OES. Seed phytate was determined using a UV-visible spectrophotometer rapid colourimetric assay. The results revealed significant differences between seven industrial hemp varieties for most macro- and micronutrient concentrations (not Fe), phytate concentration and content and phytate-to-mineral molar ratios in both source and multiplied seeds. Multiplied hemp seeds had higher K, Mn and Zn and, lower Cr and phytate concentrations and lower phytate content than source seeds. Considering nutrient bioavailability, Ca and Fe are non-bioavailable, and Zn is bioavailable in hemp seeds. Ferimon has increased Zn bioavailability in source and multiplied seeds, indicating the variety’s potential for seed production in Western Australia.