The genus Trichoderma is ubiquitous in various niches and is currently used for biocontrol, biofertilizer, enzyme production and bioremediation. However, molecular mechanisms underlying its diverse biological functions are yet not fully elucidated. Extraction of high-quality RNA for downstream applications such as quantitative polymerase chain reaction is a prerequisite. The current study aims to optimize a total RNA extraction protocol for high-quality and quantity RNA from Trichoderma atrobrunneum. Seven RNA extraction protocols including Trizol, RiboEx PureLink RNA mini kit, high salt CTAB (cetyltrimethylammonium bromide), modified high salt CTAB, SDS (sodium dodecyl sulfate) and CTAB-PVP (polyvinylpyrrolidone) were performed separately, to extract RNA. Quality and quantity of extracted RNA samples were further analyzed by Nanodrop spectrophotometry, agarose gel electrophoresis and RT-PCR analysis. The results of quantitative and qualitative analysis of RNA samples showed that more intact, high-quality RNA was extracted using the modified high salt CTAB as compared to other methods. The RT-PCR results for the amplification of the genes encoding β-tubulin and Ubiquitin carrier protein also showed lowest threshold cycle (Ct) and coefficient of variation (CV) for RNA samples extracted with the modified high salt CTAB method as compared to RNA samples extracted with other protocols. Therefore, it is proposed that the modified high salt CTAB protocol is an excellent method to obtain high-quality RNA with good yield from T. atrobrunneum for its downstream applications. Moreover, the optimized protocol is very economical and can be used to extract total RNA from a large number of samples.
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http://dx.doi.org/10.1016/j.mimet.2022.106535 | DOI Listing |
Symmetry-breaking spin-state transitions in two of three isostructural salts of MnIII spin-crossover cations, [MnIII(3-OMe-5-NO2-sal2323)]+, with heavy anions are reported. The ReO4- salt undergoes two-step spin crossover which is coupled with a re-entrant symmetry-breaking structural phase transition between a high temperature phase (S = 2, C2/c), an intermediate ordered phase (S = 1/S = 2, P21/c), and a low temperature phase (S = 1, C2/c). The AsF6- complex undergoes an abrupt transition between a high temperature phase (S = 2, C2/c) and a low temperature ordered phase (S = 1/S = 2, P-1).
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January 2025
From the Department of Internal Medicine, Texas Tech University Health Sciences Center, Lubbock, TX.
The vascular endothelium and its endothelial glycocalyx contribute to the protection of the endothelial cells from exposure to high levels of sodium and help these structures maintain normal function by regulating vascular permeability due to its buffering effect. The endothelial glycocalyx has negative surface charges that bind sodium and limit sodium entry into cells and the interstitial space. High sodium levels can disrupt this barrier and allow the movement of sodium into cells and extravascular fluid.
View Article and Find Full Text PDFAngew Chem Int Ed Engl
January 2025
University of Science and Technology of China, Division of Nanomaterials & Chemistry, Hefei National Laboratory for Physical Sciences at Microscale, CHINA.
Electrolysis of carbon dioxide (CO2) in acid offers a promising route to overcome CO2 loss in alkaline and neutral electrolytes, but requires concentrated alkali cations (typical ≥3 M) to mitigate the trade-off between low pH and high hydrogen evolution reaction (HER) rate, causing salt precipitation. Here we report a strategy to resolve this problem by introducing tensile strain in a copper (Cu) catalyst, which can selectively reduce CO2 to valuable multicarbon products, particularly ethylene, in a pH 1 electrolyte with 1 M potassium ions. We find that the tension-strained Cu creates an electron-rich surface that concentrates diluted potassium ions, contributing to CO2 activation and HER suppression.
View Article and Find Full Text PDFEnviron Sci Process Impacts
January 2025
Department of Environmental Science, Stockholm University, Sweden.
In surface waters, photodegradation is a major abiotic removal pathway of the neurotoxin monomethylmercury (MMHg), acting as a key control on the amounts of MMHg available for biological uptake. Different environmental factors can alter the rate of MMHg photodegradation. However, our understanding of how MMHg photodegradation pathways in complex matrixes along the land-to-ocean aquatic continuum respond to changes in salinity, dissolved organic carbon (DOC) concentration and dissolved organic matter (DOM) composition is incomplete.
View Article and Find Full Text PDFPhys Chem Chem Phys
January 2025
National Engineering Research Centre for Mg Alloys, Chongqing University, Chongqing 400044, PR China.
Rechargeable Mg batteries are promising candidates for achieving considerable high-energy-density. Enhancing the energy density can be achieved by integrating metallic Mg anodes with conversion-type cathode materials, which are characterized by multi-electron transfer process and elevated specific capacities in contrast to intercalation-type materials. Despite these advantages, the conversion-type cathodes still have some challenges of substantial volume expansion, sluggish diffusion kinetics and intricate mesophase evolution during repeated electrochemical reactions.
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