The research, led by Aura Aslan and Rumella Simarmata of Indonesia’s National Research and Innovation Agency (BRIN), with collaborators from IPB University, the University of Brawijaya, and PT. Pupuk Kalimantan Timur, focuses on an isolate designated B64. Using Illumina paired-end sequencing technology, the team assembled the whole genome of the strain and subjected it to the rigorous standards of modern prokaryotic taxonomy. Two complementary metrics were used to determine whether B64 belonged to an existing species: average nucleotide identity, or ANI, which measures the overall genetic similarity between two genomes, and digital DNA-DNA Hybridization, or dDDH, which estimates the degree of whole-genome relatedness in silico, replacing the laborious laboratory hybridization experiments of earlier decades.

The verdict was unambiguous. The highest ANI value recorded between B64 and its closest relatives was 94.4 percent, and the dDDH values ranged from 51.4 to 62.4 percent. Both figures fall below the internationally accepted thresholds for species membership, which are set at 95 percent for ANI and 70 percent for dDDH. In practical terms, these numbers mean that B64 is genetically distinct enough to be considered a novel species within the Bradyrhizobium genus, closely allied with Bradyrhizobium yuanmingense but clearly separated from it by a measurable genomic gulf. This kind of genome-based species delimitation has become the gold standard in bacterial taxonomy precisely because it removes the ambiguity that plagued older, phenotype-based classification systems.

But identifying a new species was only the opening act. The researchers also wanted to know whether B64 possessed the functional machinery that makes rhizobia so valuable to agriculture. Physiological assays painted an encouraging picture. The bacterium demonstrated nitrogen fixation activity measured at 1.97 parts per million, produced indole-3-acetic acid, a plant growth-promoting hormone better known as IAA, at 3.67 parts per million, and solubilized phosphate at 26.10 parts per million. Each of these traits contributes to plant growth through a different pathway: nitrogen fixation supplies the essential nutrient that most often limits crop productivity, IAA stimulates root development and branching, and phosphate solubilization unlocks a mineral that is abundant in many soils but chemically locked away from plant roots. An organism combining all three capabilities is a rare and valuable find.

The heart of the study, however, lies in its structural biology. The team zeroed in on NodD1, a transcriptional regulator of the LysR-type family that acts as the bacterial sensor for flavonoid molecules released by legume roots. When NodD1 binds the appropriate flavonoid, it switches on the nodulation genes, triggering the production of lipochitooligosaccharides, or Nod factors, which the plant perceives as the signal to begin building root nodules, the specialized organs that house the bacteria and provide the low-oxygen environment nitrogenase needs to function. In other words, NodD1 sits at the very gateway of symbiosis, deciding when the molecular dialogue between bacterium and plant begins.

Because no experimental structure of the B64 NodD1 protein was available, the researchers turned to AlphaFold3, the artificial intelligence system that has transformed structural biology by predicting protein conformations from amino acid sequences with remarkable accuracy. The resulting model was then subjected to Ramachandran plot analysis, a classical validation technique that examines whether the backbone dihedral angles of every amino acid residue fall within stereochemically permitted regions. The model passed with distinction: 100 percent of residues occupied allowed regions of the plot, a result that speaks to the reliability of the predicted fold and gives the team confidence that subsequent computational experiments were conducted on a structurally sound template.

With a validated protein structure in hand, the researchers performed molecular docking simulations to explore how NodD1 interacts with four flavonoid signaling molecules commonly exuded by legume roots: apigenin, daidzein, genistein, and naringenin. Docking is a computational method that predicts the preferred orientation and binding strength of a small molecule within a protein’s binding pocket, typically reporting the result as a binding free energy, where more negative values indicate more thermodynamically favorable interactions. The simulations, carried out using AutoDock Vina, demonstrated strong binding affinities across the entire flavonoid panel, with binding free energies ranging from −8.8 to −9.0 kilocalories per mole. These values fall comfortably within the range associated with biologically meaningful protein-ligand interactions.

Two ligands stood out for different reasons. Daidzein, an isoflavone characteristic of soybean root exudates, exhibited the highest thermodynamic stability of the four, with a binding free energy of −9.0 kilocalories per mole. Apigenin, by contrast, formed the most extensive network of residue-level interactions with the protein, suggesting that while its overall binding energy was marginally weaker, it engages a broader array of contact points within the binding pocket. Such differences matter: the constellation of hydrogen bonds, hydrophobic contacts, and aromatic stacking interactions that stabilize a ligand in its pocket determines not only how tightly the molecule binds but also how effectively it can allosterically activate the regulator and stimulate transcription of the nodulation genes. The finding provides a mechanistic rationale for why B64 nodulates its host plants efficiently and hints at which flavonoids might be most effective in priming the symbiosis under field conditions.

The broader context of this work is the growing global effort to reduce agriculture’s reliance on industrially produced nitrogen fertilizer, the manufacture of which through the Haber-Bosch process consumes vast quantities of fossil fuel and contributes significantly to greenhouse gas emissions. Legume-rhizobium symbiosis offers a natural alternative: when the partnership functions well, the plant receives all the nitrogen it needs at essentially no energetic cost to the farmer. Biofertilizers based on rhizobial inoculants are already in commercial use, but their effectiveness is limited by strain selection, host specificity, and environmental factors. A novel species with strong nitrogen fixation, IAA production, and phosphate solubilization, combined with robust NodD1-flavonoid interactions, represents exactly the kind of candidate strain that inoculant developers are searching for. The authors specifically highlight the potential of B64 as a source material for lipochitooligosaccharide-based biofertilizers, products that deliver the Nod factor signal itself to stimulate nodulation even in the absence of live bacteria.

The study also exemplifies a methodological trend sweeping through microbiology: the seamless integration of genomics, structural prediction, and computational chemistry into a single research pipeline. What once would have required years of cloning, protein expression, crystallization, and X-ray diffraction work can now be initiated from a genome sequence, with AI-predicted structures validated by established stereochemical checks and interrogated by docking algorithms within weeks. This acceleration does not eliminate the need for experimental confirmation, and the authors themselves position their docking results as a molecular basis for further study rather than a definitive functional proof. Yet the approach dramatically lowers the barrier to screening large numbers of candidate strains and prioritizing the most promising symbionts for wet-lab validation and field trials.

For Indonesia, home to vast legume cultivation areas and a national push toward sustainable intensification, the identification of a locally isolated novel Bradyrhizobium species carries particular significance. Native strains adapted to local soils and climates often outperform imported commercial inoculants, and the work was supported by the country’s Research and Innovation Implementation Agency in partnership with the Indonesia Endowment Fund for Education. As the research team continues to characterize B64, including testing its nodulation performance across legume hosts and its resilience in diverse soil conditions, the bacterium may well find its way from genome databases and docking simulations into the seed coatings of farmers across the tropics, quietly fixing nitrogen and enriching soils one nodule at a time.

Despite these advances, leguminous plants like edamame (immature soybeans) have historically posed a significant challenge to indoor cultivation within these environments. The complexity originates from their extended growth cycles, sensitivity in flowering and pod development phases, and the inherent rapid post-harvest degeneration, complicating storage and distribution logistics. This intractability has confined edamame production largely to seasonal outdoor cultivation, limiting availability and elevating supply instability.

Addressing these challenges, a joint research initiative spearheaded by Professor Toshio Sano of Hosei University and Associate Professor Wataru Yamori of The University of Tokyo has made a groundbreaking breakthrough. Building upon their prior success in hydroponic tomato cultivation under light-emitting diode (LED) systems, the team focused on refining techniques to facilitate stable edamame growth in artificial light environments. Their innovative findings, now published in the renowned journal Scientific Reports (Volume 15), delineate a sustainable methodology that not only enables year-round edamame production but also surpasses field cultivation yields in both quantity and quality.

Central to their research was the comparative evaluation of three hydroponic cultivation methods: Nutrient Film Technique (NFT), Rock Wool Culture (ROC), and Mist Culture (MIST). NFT, characterized by a thin continuous flow of nutrient solution over the plant roots, emerged as the superior approach. Plants cultivated using NFT exhibited enhanced vigor, including robust stem architecture, healthier foliar development, and increased total biomass, outperforming both other hydroponic treatments and conventional open-field counterparts.

Yield metrics further underscored NFT’s advantages. This technique significantly amplified pod count and seed number, culminating in overall yields greater than those obtained through traditional farming methods. This surpassing of former assumptions about the impracticality of legume cultivation in artificial light plant factories underscores the potential of NFT systems to transform edamame production paradigms fundamentally.

Quality assessments revealed that NFT-grown edamame outperformed field-grown specimens in several nutritional dimensions. Most notably, sucrose concentrations were elevated, imparting a sweeter taste profile appreciated by consumers. While free amino acid content displayed marginal declines, the levels of isoflavones—bioactive phytochemicals lauded for their antioxidative and health-promoting properties—were significantly enhanced. The researchers posited that continuous exposure to LEDs might stimulate specific metabolic pathways, boosting the biosynthesis of these compounds beyond traditional cultivation capacities.

Taken holistically, the integration of these factors—higher yield, superior sugar content, and elevated nutraceutical levels—positions NFT hydroponics as an optimal strategy for edamame production. Importantly, the approach is inherently adaptable to vertical, multi-tiered farming architectures, ideal for densely populated urban environments where arable land is limited. Vertical stacking facilitates maximized spatial efficiency and scalability, facilitating intensified production without expanding the physical footprint of cultivation facilities.

The implications of this research extend well beyond urban or terrestrial agriculture. Professor Sano highlights the transformative potential of this innovation, envisioning edamame cultivation in unconventional and extreme environments such as arid deserts or even extraterrestrial habitats. As a high-protein, nutrient-dense crop that can thrive outside traditional agricultural constraints, edamame holds promise as a critical component of food security strategies for long-duration space missions and colonization efforts.

This pioneering success dismantles the longstanding paradigm that legumes with their complex physiological demands are unsuitable for artificial light plant factories. It ushers in a new era of resilient, climate-independent food production systems that can reliably deliver high-quality crops anywhere—ushering in solutions to pressing global challenges such as food scarcity, urbanization pressures, and climate unpredictability.

By integrating sophisticated hydroponic techniques with precise LED lighting regimens tailored for metabolic optimization, this research not only advances the frontiers of agricultural biotechnology but also sets a precedent for future studies targeting other leguminous and high-value crops. The capacity to synchronize physiological development stages of plants with engineered light spectra and nutrient solutions heralds a future where agriculture transcends geography and seasonality.

This world-first demonstration that edamame can be grown “delicious anytime, anywhere” marks a seminal milestone towards sustainable urban food systems. It embodies a significant leap in our ability to engineer plant factories that serve multifaceted objectives: ensuring nutritional quality, maximizing yield, conserving resources, and stabilizing food supplies globally.

As population growth continues unabated alongside mounting pressures from climate change, innovations like this signal the essential evolution of crop production methodologies. Controlled-environment agriculture, empowered by hydroponic versatility and LED lighting technology, stands at the forefront of the next green revolution—one capable of furnishing nutritious foods like edamame at any place and time, empowering human health and survival in the 21st century and beyond.

Subject of Research: Not applicable

Article Title: Sustainable Edamame production in an artificial light plant factory with improved yield and quality

News Publication Date: 12-Sep-2025

Web References: https://doi.org/10.1038/s41598-025-17131-w

References:
Takano T., Wakabayashi Y., Wada S., Sano T., Kawabata S., Yamori W. (2025). Sustainable Edamame production in an artificial light plant factory with improved yield and quality. Scientific Reports, Volume 15. DOI: 10.1038/s41598-025-17131-w

Image Credits: Professor Toshio Sano, Hosei University, Japan

Keywords: Agriculture, Agricultural engineering, Sustainable agriculture, Light emitting diodes, Sustainability, Food security, Food resources, Global food security, Agricultural biotechnology, Biotechnology, Environmental sciences, Space exploration

The study addressed a critical question: How can local agriculture benefit from the natural symbiotic relationships between legumes and rhizobia? The researchers embarked on an ambitious quest to isolate and characterize the rhizobia indigenous to the Tigray region. This endeavor not only aimed to fill knowledge gaps regarding the local microbiome but also to assess how these organisms could contribute to boosting crop yields.

Field peas are a significant crop for food security and sustainable agriculture, especially in regions with challenging soil conditions. The researchers emphasized that understanding the indigenous rhizobia is key to improving the agricultural productivity of legumes. By isolating these bacteria from root nodules, they aimed to tap into their potential to fix atmospheric nitrogen, a crucial process that enhances soil fertility and plant growth.

The team employed stringent biochemical methods to characterize the isolated rhizobia, employing techniques that revealed their metabolic capabilities and interactions with host plants. These analyses provided insights into the diversity of rhizobia present in the root nodules and their functional attributes, which can directly influence agricultural practices. The study highlighted how variations in biochemical characteristics among the isolated strains could lead to different levels of effectiveness as bio-inoculants.

Following the isolation and characterization of the indigenous rhizobia, the researchers turned their attention to evaluating the bio-inoculant potential of these microorganisms on the Bursa variety of field pea. This evaluation involved meticulously designed experiments to monitor plant growth metrics, including root nodulation, shoot height, and overall biomass production. Such holistic assessments are crucial in determining the practical applicability of these bio-inoculants in field conditions.

Beyond the immediate benefits to the crop, the findings of this research could lead to long-term sustainability in agriculture. The utilization of native rhizobia can reduce the dependency on chemical fertilizers, thereby minimizing environmental impacts and promoting healthier farming practices. The researchers argued that these indigenous microorganisms offer a promising avenue for enhancing soil health and promoting sustainable agricultural practices in Tigray and beyond.

As agricultural challenges continue to escalate due to climate change and increasing population demands, the quest for sustainable solutions has never been more urgent. This study stands out as it not only contributes to academic knowledge but also offers practical solutions to real-world farming issues. The potential for these bio-inoculants has piqued interest across the agricultural community, opening doors for future research and collaboration.

In conclusion, Haftu, Abera, and Kasegn’s groundbreaking work illustrates the significance of indigenous rhizobia in enhancing the productivity of field peas in Tigray, Ethiopia. By combining rigorous scientific methodology with a focus on local ecosystems, this research exemplifies how traditional agricultural knowledge can inform modern practices. The authors hope their findings inspire further investigations into the potential of native microorganisms, encouraging farmers to adopt bio-inoculants as a viable solution for sustainable agriculture.

The study undoubtedly sets a precedent for future research in the field of agricultural microbiology, emphasizing the critical role of soil health and biodiversity in crop production. Given the preliminary success observed in the growth of the Bursa variety, further exploration into different crops and regions could yield transformative results for global agriculture.

As the agricultural landscape increasingly embraces the intersection of science and sustainability, the contributions from this research could provide a vital blueprint for integrating ecological principles into conventional farming practices. The quest for resilient agricultural systems continues, but the insights gained from these indigenous rhizobia stand as a beacon of hope for farmers seeking innovative solutions to age-old challenges.

In the coming years, the researchers envision scaling up their findings through partnerships with local farmers and agricultural institutions, fostering a community-oriented approach to bio-inoculant application. Such collaborations are essential for ensuring that scientific advancements translate into practical benefits for those who need them most.

Haftu, Abera, and Kasegn’s study not only enriches our understanding of plant-microbe interactions but also invites a larger conversation about the importance of local biodiversity in sustainable agriculture. The implications of their research extend far beyond Tigray, as similar strategies could be adopted globally, heralding a new era of environmentally friendly farming practices that honor the symbiotic relationships present in nature.

As this riveting research garners attention, the excitement surrounding the potential of indigenous rhizobia serves as a reminder of the untapped resources found within our ecosystems. The journey of discovery is far from over, and with each new study, the agricultural community takes one more step toward a sustainable future.

Subject of Research: Isolation and biochemical characterization of indigenous rhizobia from root nodules of field pea (Pisum sativum L.) and their potential as bio-inoculants.

Article Title: Isolation and biochemical characterization of Indigenous rhizobia from root nodules of field pea (Pisum sativum L.) and assessment of their bio-inoculants potential on the growth of Bursa variety in Tigray, Ethiopia.

Article References:

Haftu, S.Z., Abera, H.K., Kasegn, M.M. et al. Isolation and biochemical characterization of Indigenous rhizobia from root nodules of field pea (Pisum sativum L.) and assessment of their bio-inoculants potential on the growth of Bursa variety in Tigray, Ethiopia.
Discov Agric 3, 234 (2025). https://doi.org/10.1007/s44279-025-00416-z

Image Credits: AI Generated

DOI: https://doi.org/10.1007/s44279-025-00416-z

Keywords: Indigenous rhizobia, field pea, bio-inoculants, sustainable agriculture, Tigray, nitrogen fixation, plant-microbe interactions, ecological practices.

The team, led by esteemed researchers Mancilla-Álvarez, López-Buenfil, and Serrano-Fuentes, investigated how Azospirillum brasilense can bolster the nutrient status and overall viability of sugarcane plantlets. This study is particularly relevant because micropropagation has become a standard practice in modern agriculture, allowing for rapid multiplication of plants while ensuring genetic uniformity. However, the transfer of these plants from controlled environments to open air—ex vitro conditions—presents challenges such as environmental stress and root system development.

One of the main goals of utilizing Azospirillum brasilense is its well-documented ability to fix atmospheric nitrogen and enhance nutrient uptake for plants. This study aims to elucidate the mechanisms by which this bacterium affects sugarcane plantlets during a crucial transitional phase. The application of Azospirillum appears to support plant growth through various physiological pathways, potentially leading to improved resilience against biotic and abiotic stresses.

The research involved a comprehensive approach whereby the plantlets were subjected to a range of treatments involving Azospirillum brasilense. Observations included metrics such as root development, shoot growth, and overall plant health. Early results indicated a marked improvement in plant survival rates, underscoring the bacterium’s favorable role in the establishment of micropropagated plants when exposed to external environmental challenges.

In terms of nutrient status, the plantlets treated with Azospirillum displayed significantly enhanced levels of important macronutrients. For instance, nitrogen content was substantially higher in treated plants, demonstrating the bacterium’s efficacy in nitrogen fixation. Additionally, other nutrients critical for plant development, such as phosphorus and potassium, were also found in increased concentrations. This nutrient uptick is likely to enhance photosynthetic efficiency, ultimately contributing to better growth and productivity.

Moreover, the researchers measured growth parameters including height, leaf area, and biomass accumulation. Findings revealed that plantlets inoculated with Azospirillum brasilense exhibited superior growth traits compared to control groups. This growth superiority is attributed not only to nutrient availability but also to the beneficial rhizosphere interactions initiated by the presence of the bacteria.

Exploring the cellular mechanisms behind these observations, the study raised intriguing questions about the symbiotic relationship between sugarcane and Azospirillum. The investigation included root morphology assessments, where differences in root architecture were noted. These structural changes are vital, as a well-developed root system enhances the plant’s ability to access nutrients and water more efficiently.

Interestingly, the role of plant hormones, particularly auxins and cytokinins, was also a focal point, as Azospirillum could influence endogenous hormone levels. The interplay between bacteria and hormonal regulation may lead to translational aspects of how plants respond to their environments and develop growth strategies. Further exploration of these hormone-bacteria dynamics will be essential for understanding the broader implications of this interaction in sustainable agriculture.

As agriculture continues to face the looming challenges of climate change and population growth, the strategies emphasized in this research can pave the way for innovations in crop management practices. By leveraging the natural relationships between plants and beneficial microorganisms, farmers can potentially reduce the dependency on chemical fertilizers, promoting an eco-friendlier approach to farming.

The implications of these findings suggest that integrating Azospirillum brasilense into sugarcane cultivation practices could lead to enhanced productivity and sustainability. Encouragingly, the positive effects of bacterial inoculation extend beyond sugarcane, as similar approaches have shown promise across various crop species, establishing a broader context for future research.

As the agricultural community absorbs the findings from this seminal study, the dialogue about the integration of microbial solutions in crop production will likely gain momentum. Efforts to develop guidelines or standardized practices for using beneficial microbes like Azospirillum in diverse agricultural settings could emerge, advancing our understanding of plant-microbe interactions.

In conclusion, this pioneering research not only highlights the beneficial relationship between Azospirillum brasilense and micropropagated sugarcane but also sets the stage for further exploration into the complex world of plant microbiomes. The positive findings about plant growth, survival, and nutrient acquisition stand to revolutionize agricultural practices, ensuring that farmers are better equipped to meet the growing demands of global food production.

The journey of this research exemplifies the promise of innovative agricultural solutions rooted in biological sciences. As we cast our sights forward, anticipation builds for how these findings will be applied and adapted within real-world agricultural systems, potentially leading towards greater food security and environmental sustainability.

Subject of Research: The impact of Azospirillum brasilense on the survival, growth, and nutrient status of micropropagated sugarcane plantlets during ex vitro conditions.

Article Title: Azospirillum brasilense affects survival, growth and nutrient status of micropropagated sugarcane (Saccharum spp.) plantlets during ex vitro conditions.

Article References:

Mancilla-Álvarez, E., López-Buenfil, J.A., Serrano-Fuentes, M.K. et al. Azospirillum brasilense affects survival, growth and nutrient status of micropropagated sugarcane (Saccharum spp.) plantlets during ex vitro conditions.
Discov. Plants 2, 274 (2025). https://doi.org/10.1007/s44372-025-00357-3

Image Credits: AI Generated

DOI: 10.1007/s44372-025-00357-3

Keywords: Azospirillum, sugarcane, micropropagation, plant growth, nutrient acquisition, ex vitro conditions, agricultural sustainability.

Historically, saline-alkali soils have posed significant barriers to agricultural productivity, particularly in arid and semi-arid regions. The accumulation of salts in soil inhibits plant growth, leading to reduced crop yields and compromised soil health. Traditional methods of addressing salinity stress, such as soil amendments and irrigation management, often prove inadequate or economically unfeasible, especially for smallholder farmers. The exploration of biological solutions represents an innovative approach to tackling these challenges.

The research team, led by prominent scientists Zou, Shi, and Liu, aimed to investigate the adaptive mechanisms that enable Trametes NF1 to thrive in such hostile environments. This fungus is known for its lignocellulose-degrading capabilities, which are vital for nutrient cycling in soil ecosystems. Their study posits that Trametes NF1 not only improves nutrient availability but also fosters enhanced root development in alfalfa, thus bolstering the plant’s overall resilience to saline stresses.

Through a combination of greenhouse experiments and field trials, the team meticulously documented the growth responses of alfalfa when inoculated with Trametes NF1. Results revealed a striking increase in plant height, biomass, and root length, coupled with a significant enhancement in physiological parameters such as chlorophyll content and photosynthetic rate. These findings underscore the pivotal role that beneficial microorganisms can play in improving plant fitness amidst environmental stressors.

The study also delves into the biochemical pathways activated by Trametes NF1, shedding light on how this fungus imparts salinity tolerance. It triggers a complex network of stress response genes that facilitate ion homeostasis, osmotic adjustment, and antioxidant production within the plant. This multifaceted interaction suggests that Trametes NF1 not only aids in nutrient acquisition but also primes alfalfa to effectively manage ionic imbalances created by high saline conditions.

In addition, the research highlights the implications of these findings for agricultural sustainability. As the demand for food continues to intensify, innovative strategies to improve crop resilience are imperative. By harnessing the properties of Trametes NF1, farmers could significantly enhance the productivity of alfalfa crops grown in saline-prone areas, thereby increasing livestock feed availability in regions where it is most needed.

Moreover, the application of fungal inoculants like Trametes NF1 represents a shift towards eco-friendly agricultural practices. Unlike synthetic fertilizers and chemical amendments, which often exacerbate soil degradation, biological solutions promote a more holistic approach to soil fertility management. This could lead to long-term improvements in soil health, increased carbon sequestration, and enhanced biodiversity within managed ecosystems.

The researchers plan to further investigate the potential of Trametes NF1 in other economically important crops, with the hope of developing a suite of biological tools to combat salinity stress across diverse agricultural systems. Their findings provoke critical discussions about the future of agriculture in saline-prone regions and underline the importance of integrating innovative microbial solutions into mainstream practices.

As the agricultural community grapples with the dual challenges of climate change and food security, studies like these illuminate pathways toward resilient and sustainable farming systems. The collaboration between microbiologists, agronomists, and plant physiologists in this research underlines the interdisciplinary approach necessary to tackle some of the most pressing issues in agriculture today.

In conclusion, the introduction of Trametes NF1 as a biological ally in promoting alfalfa growth amid saline conditions represents a groundbreaking step in enhancing agricultural resilience. This research signifies the beginning of a promising journey toward sustainable solutions that not only bolster food production but also safeguard the environment against degradation.

The implications of such advancements extend far beyond the laboratory. With proper dissemination and adoption strategies, these findings could transform agricultural practices in affected regions and create a framework for addressing similar challenges globally. The future of agriculture may very well depend on our ability to integrate natural solutions into the fabric of crop production, ensuring the sustainability and security of food systems for generations to come.

Subject of Research: The role of Trametes NF1 in promoting alfalfa growth and salinity tolerance.

Article Title: Saline-alkali resilience: the role of Trametes NF1 in promoting alfalfa growth and salinity tolerance.

Article References:

Zou, H., Shi, Z., Liu, J. et al. Saline-alkali resilience: the role of Trametes NF1 in promoting alfalfa growth and salinity tolerance. Int Microbiol (2025). https://doi.org/10.1007/s10123-025-00680-5

Image Credits: AI Generated

DOI: https://doi.org/10.1007/s10123-025-00680-5

Keywords: Trametes NF1, alfalfa growth, salinity tolerance, saline-alkali soils, sustainable agriculture, microbial solutions.