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Bacillus subtilis is a spore-forming rhizosphere bacterium used as a microbial ingredient in biological inputs. It colonizes the root zone, is studied for its role in nutrient availability and phytohormone signaling, and is supplied by IndoGulf BioAg at 1 × 10⁸, 1 × 10⁹ and 1 × 10¹⁰ CFU/g. < Microbial Species Bacillus subtilis Bacillus subtilis is a spore-forming rhizosphere bacterium used as a microbial ingredient in biological inputs. It colonizes the root zone, is studied for its role in nutrient availability and phytohormone signaling, and is supplied by IndoGulf BioAg at 1 × 10⁸, 1 × 10⁹ and 1 × 10¹⁰ CFU/g. Strength 1 x 10⁸ CFU per gram / 1 x 10⁹ CFU per gram / 1 x 10¹⁰ CFU per gram Product Enquiry Buy this species Download Brochure Benefits Bioremediation: Breaks down organic contaminants in soil, contributing to environmental cleanup and restoring soil health. Nutrient Availability: Enhances the solubility of nutrients in the soil, facilitating better uptake by plants for improved growth and yield. Soil Structure Improvement: Enhances soil structure and aeration through the production of biofilms, promoting beneficial microbial activity and root development. Disease Resistance: Induces systemic resistance in plants against various soil-borne pathogens, reducing the need for chemical pesticides. Dosage & Application Additional Info Scientific References Mode of Action Sustainability Advantage FAQ Scientific References Scientific references The references below support the mechanisms described under Mode of Action. They are species- and mechanism-level literature. They are not performance data for IndoGulf BioAg finished products, and they should not be read as such. Reviews: overall state of the evidence Blake, C., Christensen, M.N. and Kovács, A.T. (2021). Molecular aspects of plant growth promotion and protection by Bacillus subtilis . Molecular Plant-Microbe Interactions , 34(1), 15-25. https://doi.org/10.1094/MPMI-08-20-0225-CR Adjei, M.O., Yu, R., Cao, X. and Fan, B. (2025). The mechanisms of Bacillus subtilis as a plant-beneficial rhizobacterium in plant-microbe interactions. Microorganisms , 13(12), 2823. https://doi.org/10.3390/microorganisms13122823 Falardeau, J., Wise, C., Novitsky, L. and Avis, T.J. (2013). Ecological and mechanistic insights into the direct and indirect antimicrobial properties of Bacillus subtilis lipopeptides on plant pathogens. Journal of Chemical Ecology , 39(7), 869-878. https://doi.org/10.1007/s10886-013-0319-7 Root colonization and biofilm Dobrange, E. and Van den Ende, W. (2025). Bacterial cell differentiation during plant root colonization: the putative role of fructans. Physiologia Plantarum , 177(1), e70095. https://doi.org/10.1111/ppl.70095 Nutrient availability and phytohormones Sharma, M., Sood, G. and Chauhan, A. (2024). Assessment of plant growth promotion potential of endophytic bacterium B. subtilis KU21 isolated from Rosmarinus officinalis . Current Microbiology , 81(7), 207. https://doi.org/10.1007/s00284-024-03734-5 Gayathri, R.S.R. et al. (2025). Isolation, identification and bioprospecting potential of Bacillus subtilis , endophytic bacterium from Bruguiera gymnorrhiza . Microbial Pathogenesis , 203, 107458. https://doi.org/10.1016/j.micpath.2025.107458 Gupta, A. et al. (2022). ACC deaminase produced by PGPR mitigates the adverse effect of osmotic and salinity stresses through modulating the antioxidant activities. Plants , 11(24), 3419. https://doi.org/10.3390/plants11243419 Plant immune signaling: lipopeptides and volatiles Farace, G. et al. (2015). Cyclic lipopeptides from Bacillus subtilis activate distinct patterns of defence responses in grapevine. Molecular Plant Pathology , 16(2), 177-187. https://doi.org/10.1111/mpp.12170 Jourdan, E. et al. (2009). Insights into the defense-related events occurring in plant cells following perception of surfactin-type lipopeptide from Bacillus subtilis . Molecular Plant-Microbe Interactions , 22(4), 456-468. https://doi.org/10.1094/MPMI-22-4-0456 Ryu, C.-M. et al. (2004). Bacterial volatiles induce systemic resistance in Arabidopsis . Plant Physiology , 134(3), 1017-1026. https://doi.org/10.1104/pp.103.026583 Tunsagool, P. et al. (2019). Targeted transcriptional and proteomic studies explicate specific roles of Bacillus subtilis iturin A, fengycin, and surfactin on elicitation of defensive systems in mandarin fruit during stress. PLoS ONE , 14(5), e0217202. https://doi.org/10.1371/journal.pone.0217202 Soil and environmental context Treesubsuntorn, C., Dhurakit, P., Khaksar, G. and Thiravetyan, P. (2018). Effect of microorganisms on reducing cadmium uptake and toxicity in rice ( Oryza sativa L.). Environmental Science and Pollution Research , 25(26), 25690-25701. https://doi.org/10.1007/s11356-017-9058-6 Taxonomy Nanjani, S., Soni, R., Paul, D. and Keharia, H. (2022). Genome analysis uncovers the prolific antagonistic and plant growth-promoting potential of endophyte Bacillus velezensis K1. Gene , 836, 146671. https://doi.org/10.1016/j.gene.2022.146671 Regulatory and official sources Regulation (EU) 2019/1009 laying down rules on the making available on the market of EU fertilising products, consolidated text. https://eur-lex.europa.eu/eli/reg/2019/1009/oj Regulation (EC) No 1107/2009 concerning the placing of plant protection products on the market. https://eur-lex.europa.eu/eli/reg/2009/1107/oj US Environmental Protection Agency, What is a pesticide? https://www.epa.gov/minimum-risk-pesticides/what-pesticide Literature retrieved via PubMed. Where a study is cited for a numerical result, the figure is the result reported in that study under its own stated conditions. Mode of Action How Bacillus subtilis works in the root zone Bacillus subtilis is a Gram-positive, spore-forming bacterium found widely in soil and in the rhizosphere, the thin zone of soil influenced by plant roots. It is one of the most extensively studied plant growth-promoting rhizobacteria, and its effects on plants are not attributable to a single mechanism but to several that operate together. The sections below describe mechanisms reported for the species. Performance of any finished product depends on the specific strain, formulation, crop, soil and application method, and must be established for that product. Root colonization comes first Everything else depends on the bacterium establishing on and around the root. Colonization requires both motility and the ability to form a biofilm, a structured community of cells held in a self-produced matrix, and it depends on signal exchange with the plant. A review of the species concluded that field applications of B. subtilis often fail because the bacteria do not persist in the rhizosphere, and identified root colonization as the crucial step determining whether growth promotion is expressed at all (Blake, Christensen and Kovács, 2021). Practical consequence: application method and timing matter as much as the organism. Placing viable cells close to the developing root, in moist soil, is the objective of the application program set out under Dosage and Application. Nutrient availability Strains of B. subtilis have been reported to release organic acids that solubilize bound soil phosphorus, to produce siderophores that chelate iron, and to produce ammonia and a range of hydrolytic enzymes. In one characterized endophytic strain, phosphate solubilization was linked to the glucose dehydrogenase gene involved in gluconic acid production (Sharma, Sood and Chauhan, 2024). A separate isolate released malic acid as the dominant organic acid during phosphate solubilization and produced 86.32 ± 0.64 µg/mL of indole-3-acetic acid in culture (Gayathri et al., 2025). Boundary: these are laboratory measurements of a trait, not agronomic outcomes. A solubilization result in culture media does not establish how much phosphorus a given product will make available in a given soil. Phytohormone signaling and ethylene modulation Two mechanisms are consistently reported. First, production of indole-3-acetic acid, the principal plant auxin, which influences root architecture. Second, activity of the enzyme ACC deaminase, which degrades 1-aminocyclopropane-1-carboxylic acid, the immediate precursor of the plant stress hormone ethylene. By drawing down the precursor, ACC deaminase-producing bacteria reduce the ethylene surge that otherwise restricts growth under stress. In one study, two rhizobacterial isolates, one of them a B. subtilis strain, each degraded ACC at more than 257 nmol α-ketobutyrate per mg protein per hour and also produced IAA, solubilized phosphate and produced siderophores; seed treatment with them reduced stress-induced ethylene and improved seedling growth parameters in pea under salinity stress (Gupta et al., 2022). Boundary: this is a controlled study on one crop, with effects reported for the isolates together. It demonstrates a plausible and well-described mechanism; it does not establish a salinity-tolerance claim for a commercial formulation. Volatile organic compounds B. subtilis releases low-molecular-weight volatile compounds, including acetoin and 2,3-butanediol, which can act as signals to the plant without direct contact. Exposure of Arabidopsis seedlings to the volatile blend from B. subtilis GB03 activated a systemic defense response through an ethylene-dependent pathway, and transgenic lines emitting less 2,3-butanediol conferred correspondingly less protection (Ryu et al., 2004). Cyclic lipopeptides and plant immune priming B. subtilis strains produce three main families of cyclic lipopeptides: surfactins, iturins and fengycins. In plant cell and whole-plant studies these molecules are perceived by the plant and activate innate immune signaling. Purified surfactin and mycosubtilin were each perceived by grapevine cells and activated distinct early signaling and defense gene expression patterns (Farace et al., 2015). In tobacco cell suspensions, surfactin induced early defense events including extracellular alkalinization and reactive oxygen species production without measurable phytotoxicity (Jourdan et al., 2009). A review of the direct and indirect antimicrobial properties of these compounds describes both immune elicitation in the host and direct effects on microbial membranes (Falardeau et al., 2013). Boundary, important: this body of work describes a mechanism studied under laboratory and controlled conditions. It does not constitute a disease-control claim. IndoGulf BioAg supplies Bacillus subtilis as a microbial ingredient. Any pest, pathogen or disease claim requires product authorization in the target market, under Regulation (EC) No 1107/2009 in the EU and under FIFRA in the United States. Spore formation and why it matters commercially Under unfavorable conditions B. subtilis forms endospores that tolerate desiccation, heat and nutrient limitation. This is the property that makes the species practical to formulate, store and ship as a dry powder, and it underlies the potency grades offered. It is a formulation advantage rather than an agronomic one, and it does not by itself define a shelf life: shelf life must be established for the defined product, packaging and storage conditions. Summary of mechanisms Root colonization and biofilm formation. Reported: prerequisite for every other effect, and a known cause of field failure when it does not occur. Does not establish that any given strain will colonize a given crop and soil. Phosphate solubilization and siderophores. Reported: organic acid release and iron chelation in culture. Does not establish a quantity of nutrient made available in the field. IAA production and ACC deaminase. Reported: auxin supply and reduction of stress ethylene. Does not establish a yield or stress-tolerance claim. Volatile organic compounds. Reported: signaling to the plant at a distance. Does not establish a protection claim. Cyclic lipopeptides. Reported: perceived by plant cells and activate innate immune signaling. Does not establish disease control, which requires product authorization. Endospore formation. Reported: tolerance to drying and storage. Does not establish a specific shelf-life figure. Published evidence for a microbial species or related strain does not establish identical performance for every strain, formulation, crop or growing condition. Additional Info Additional information Taxonomy and naming Bacillus subtilis is the type species of the genus Bacillus . Several strains historically published as B. subtilis have since been reclassified on the basis of whole-genome analysis. The strain published as B. subtilis K1, for example, was reassigned to Bacillus velezensis following average nucleotide identity comparison (Nanjani et al., 2022). When comparing published literature or competitor specifications, check the identification method and its date. IndoGulf BioAg retains the organism name given in the current approved product specification; any taxonomic change is flagged rather than applied silently to a label. Potency and units Potency is stated in CFU/g, colony-forming units per gram. Grades offered: 1 × 10⁸, 1 × 10⁹ and 1 × 10¹⁰ CFU/g. Spore counts and CFU are not interchangeable with the propagule counts used for mycorrhizal products, and a CFU target developed for one microorganism is not transferable to another. Ask for the specification stating whether the guaranteed concentration applies at manufacture, at release or at end of shelf life. Storage and handling Store in the original sealed packaging, in a cool, dry place, out of direct sunlight, and away from disinfectants and oxidizing agents. Use clean water for preparation; water with significant residual chlorine can reduce viability. Use prepared suspensions promptly rather than storing them. Handle as a microbial product: avoid inhaling dust, use standard personal protective equipment, and follow the safety data sheet for the specific product and market. Dosage & Application Dosage and Application Recommended application rates — Bacillus subtilis soluble powder, 1 × 10⁹ CFU/g The application program below is designed to place viable Bacillus subtilis close to the developing root system, where the bacterium can establish in the rhizosphere, the thin zone of soil influenced by plant roots. Colonization of that zone is the step on which every other effect depends, and a species-level review identifies failure to persist in the rhizosphere as a common reason field results differ from laboratory results (Blake, Christensen and Kovács, 2021). Placement and moisture therefore matter as much as the rate. Rates may require adjustment according to crop, seed density, soil conditions, target use, formulation and local agronomic practice. In-furrow — 500 g/ha. Disperse in sufficient clean water for uniform distribution and deliver directly into the seed furrow. Apply into moist soil, or follow with irrigation. Apply at planting, once per season. Soil and root-zone treatment — 500 g/ha. Broadcast evenly and incorporate lightly, apply as a root-zone drench, or introduce through a suitable irrigation system. Apply pre-planting or at the early vegetative stage, once at planting, repeating after 4–6 weeks where agronomically appropriate. Seed treatment — 100 g per hectare equivalent of seed. Apply uniformly across the seed lot using a compatible seed-coating binder or adhesive, and dry the treated seed under shade. Apply immediately before planting, once per season. These rates are a starting point for controlled trial design, not a registered label recommendation. Confirm compatibility, viability, germination or plant safety, and performance before scale-up, and follow the current approved label for your market. In-furrow application In-furrow placement positions B. subtilis directly within the developing root zone at germination, and is the route to choose where early rhizosphere colonization is the objective. Disperse the required quantity in sufficient clean water to achieve uniform application. Deliver the suspension directly into the furrow during sowing. Adequate soil moisture after application supports establishment in the root zone. Soil and root-zone application Disperse the product thoroughly in clean water and apply evenly to the target root zone. Application can be made through: soil drenching; suitable irrigation systems; broadcast application followed by light incorporation; or localized application around established plants. For drip and other irrigation systems, ensure the product is fully dispersed and filter the final suspension where required to avoid blockage. Application during early crop development places the bacterium near actively growing roots, where colonization and plant–microbe interaction are most relevant. Seed treatment Seed application is the most targeted way of delivering the bacterium to the emerging root, and it uses the least product per hectare. Seed coating is well established as a delivery method for beneficial microorganisms, using a binder and, in some formats, a filler to carry the inoculum and extend survival on the seed; the same review identifies survival of the coated organism through storage as the principal limitation of the method (Rocha et al., 2019). In a controlled study, tomato seed coated with a B. subtilis strain applied with Bacillus licheniformis produced bacteria that were recovered from the rhizosphere and from plant sap after establishment, alongside increased root and shoot mass relative to untreated controls (de O Nunes et al., 2022). Apply the product uniformly across the seed lot using a compatible seed-coating binder or adhesive. Dry the seed under shade after treatment, and avoid excessive temperatures during drying. Use treated seed as close to planting as practical, unless on-seed stability has been validated for your coating system and storage interval. Where a rate per kilogram of seed is needed rather than a rate per hectare, work it back from the product's stated potency rather than converting between products: dose (g/kg seed) = target viable units per seed × seeds per kg ÷ product viable units per g ÷ expected recovery fraction Use the actual seed count per kilogram for the commercial seed lot; generic crop averages are planning assumptions only. Expected recovery, the fraction of applied viable units still viable on the seed at planting, has to be measured for your coating process and storage interval. Any safety factor should be shown as a separate term rather than folded into the rate. Water quality Use clean water wherever possible. Avoid water containing significant residual chlorine or other disinfectants, which can reduce viability. Prepare suspensions for prompt use rather than storing them. Tank mixing and compatibility Bacillus subtilis is a living microorganism, so compatibility depends on the specific co-applied product and the conditions of mixing, not on the product category. Some fertilizers and biological products may be compatible; bactericides, disinfectants, oxidizing agents, strongly acidic or alkaline solutions and certain crop-protection products can reduce viability. Compatibility should be confirmed under the intended process conditions. Evaluate physical mixing, microbial viability after the expected contact period, seed germination or plant safety, and agronomic performance before commercial use. Where compatibility has not been established: perform a compatibility test before large-scale mixing; avoid prolonged storage of prepared microbial suspensions; apply biological and strongly antimicrobial treatments separately where necessary. Use any prepared mixture promptly after preparation. Other potency grades The rates above are based on the 1 × 10⁹ CFU/g formulation. For the 1 × 10⁸ CFU/g and 1 × 10¹⁰ CFU/g grades, contact IndoGulf BioAg for concentration-, crop- and application-specific recommendations. Rates should not be adjusted by CFU arithmetic alone. Formulation properties, delivery efficiency and the target viable dose at the root all influence what a given rate achieves in the field. Results and variability Performance depends on the strain, formulation, crop, soil, environment and application method. Results may vary with crop, cultivar, soil or substrate, climate, application method, water quality and management. Use only in accordance with the current product label and local requirements. References Blake, C., Christensen, M.N. and Kovács, Á.T. (2021). Molecular aspects of plant growth promotion and protection by Bacillus subtilis . Molecular Plant-Microbe Interactions , 34(1), 15–25. https://doi.org/10.1094/MPMI-08-20-0225-CR Rocha, I., Ma, Y., Souza-Alonso, P., Vosátka, M., Freitas, H. and Oliveira, R.S. (2019). Seed coating: a tool for delivering beneficial microbes to agricultural crops. Frontiers in Plant Science , 10, 1357. https://doi.org/10.3389/fpls.2019.01357 de O Nunes, P.S., de Medeiros, F.H.V., de Oliveira, T.S., de Almeida Zago, J.R. and Bettiol, W. (2022). Bacillus subtilis and Bacillus licheniformis promote tomato growth. Brazilian Journal of Microbiology , 54(1), 397–406. https://doi.org/10.1007/s42770-022-00874-3 FAQ Frequently asked questions What is Bacillus subtilis used for in agriculture? It is used as a microbial ingredient in biological inputs applied to soil, seed or the root zone. It is studied for root colonization, effects on nutrient availability, and phytohormone and defense signaling in the plant. The function a finished product may legally claim depends on how that product is classified and registered in the market where it is sold. Read more: The role of Bacillus subtilis in promoting soil health and nutrient cycling . What concentrations does IndoGulf BioAg supply? Three potency grades: 1 × 10⁸, 1 × 10⁹ and 1 × 10¹⁰ CFU per gram. CFU/g means colony-forming units per gram, the count of viable cells able to grow into colonies. Ask for the current product specification, which states the guaranteed concentration and the point in the product life at which it applies. How is it applied? Three routes are used: in-furrow at planting, soil or root-zone application by drench or irrigation, and seed treatment with a compatible binder. Rates and timings are given under Dosage and Application. Those rates are a starting point for controlled trial design, not a registered label recommendation. Read more: How to apply Bacillus subtilis in agriculture . Can it be tank-mixed with other inputs? Compatibility depends on the specific co-applied product and the conditions of mixing, not on the product category. Fertilizers and other biologicals may be compatible; bactericides, disinfectants, oxidizing agents, strongly acidic or alkaline solutions and some crop-protection products can reduce viability. Compatibility should be confirmed under the intended process conditions: evaluate physical mixing, microbial viability after the expected contact period, seed germination or plant safety, and agronomic performance before commercial use. Does it work in every soil and every crop? No, and the published literature is direct about why. Root colonization is the step that determines whether any effect is expressed, and a species-level review identifies failure to persist in the rhizosphere as the common reason field results vary from laboratory results (Blake, Christensen and Kovács, 2021). Results vary with crop, cultivar, soil or substrate, climate, application method, water quality and management. Read more: Bacillus subtilis as bioinoculants: plant growth and stress tolerance mechanisms . Does Bacillus subtilis control plant diseases? Strains of the species produce cyclic lipopeptides that are perceived by plant cells and activate innate immune signaling in laboratory and controlled studies. That is a described mechanism, not a product claim. A product may only be presented as controlling a pest or pathogen where it is authorized for that use in the target market, in the EU under Regulation (EC) No 1107/2009 and in the United States under FIFRA. IndoGulf BioAg supplies B. subtilis as a microbial ingredient and makes no pest or disease-control claim for it. Is it suitable for organic production? Input eligibility is decided per market, per scheme and per finished product, and it does not certify the crop or finished product as organic. Confirm acceptability with the operation's certifying body before use. Can I get it as a private-label or bulk product? Yes. IndoGulf BioAg supplies single species and consortia in bulk and under private label, with formulation, specification and documentation support. Contact the technical sales team with your target market, crop, application route and required potency. What shelf life should I expect? Endospore formation gives B. subtilis products good tolerance to drying and storage relative to non-spore-forming organisms, but a shelf life is a property of a defined product in defined packaging under defined storage conditions, verified by a stated test method and acceptance limit. Request the current specification for the grade and pack format you intend to use. Where can I read more about Bacillus subtilis ? These articles from the IndoGulf BioAg blog cover the species in more depth. They are educational background, not performance data for a finished product. How to apply Bacillus subtilis in agriculture — application routes, timing and practical considerations. Bacillus subtilis as bioinoculants: plant growth and stress tolerance mechanisms — how the bacterium acts on root systems and under stress. The role of Bacillus subtilis in promoting soil health and nutrient cycling — the bacterium's place in soil biology and nutrient turnover. The history of Bacillus subtilis and the evolution of Bacillus species — taxonomy and how the species came to be studied. Sustainability Advantage Related Products Bacillus azotoformans Vesicular arbuscular mycorrhiza More Products Resources Read all

Agricultural Probiotics, Organic Fertilizers, Rice Protect Kit, Organic Fertilizers manufacturer Mumbai, rice bio-fertilizer. < Microbial Species Bacillus mucilaginosus Bacillus mucilaginosus is a naturally occurring potassium solubilizing bacterium, that naturally alleviates the K deficiency of in plants by transforming insoluble mineral potassium in the soil into bioavailable forms, ensuring optimal environment for plant root uptake. Its application is particularly valuable in soils with limited potassium availability, improving plant health and soil biodiversity. Strength 1 x 10⁸ CFU per gram / 1 x 10⁹ CFU per gram Product Enquiry Buy Now Benefits Enhanced Nutrient Uptake In addition to solubilizing potassium, Bacillus mucilaginosus facilitates the absorption of other essential nutrients, such as phosphorus, iron, and trace elements. These benefits include: Improved Growth : Supports robust plant development and higher biomass production. Increased Productivity : Enhances nutrient availability, leading to greater yields across a variety of crops. The bacterium plays a vital role in mobilizing nutrients in deficient soils, ensuring plants receive the balanced nutrition they need. Reduced Disease Incidence Through the secretion of antimicrobial compounds, Bacillus mucilaginosus suppresses harmful soil-borne pathogens that cause diseases such as root rot and wilt. Its benefits include: Pathogen Inhibition : Reduces the prevalence of damaging fungi and bacteria in the soil. Boosted Plant Immunity : Activates systemic resistance in plants, decreasing disease susceptibility. By naturally controlling pathogens, the bacterium reduces crop losses and lowers the need for chemical treatments. Rhizosphere Health Bacillus mucilaginosus supports the development of a healthy root-zone ecosystem, which is essential for sustainable soil management. Its contributions include: Soil Structure Improvement : Produces polysaccharides that enhance soil aggregation, increasing water retention and aeration. Microbial Diversity : Encourages beneficial microbes in the rhizosphere, suppressing harmful pathogens and promoting plant-friendly interactions. This enriched microbial environment enhances soil fertility and supports long-term agricultural productivity. Potassium Solubilization Bacillus mucilaginosus is an essential bacterial innoculant to combat potassium deficiency in plants by solubilizing non-exchangeable nutrient particles trapped in minerals like feldspar and mica etc. This critical function involves: Organic Acid Production : Releases bioavailable potassium by breaking down complex potassium compounds. Enhanced Soil Fertility : Maintains optimal potassium levels necessary for plant growth and development. Potassium is vital for key physiological processes in plants, including photosynthesis, nutrient transport, and stress tolerance, making Bacillus mucilaginosus a powerful tool for improving crop resilience and yield. Dosage & Application Additional Info Dosage & Application Additional Info Related Products Beauveria bassiana Hirsutella thompsonii Isaria fumosorosea Lecanicillium lecanii Metarhizium anisopliae Nomuraea rileyi Paracoccus denitrificans Bifidobacterium animalis Bifidobacterium bifidum Bifidobacterium breve Bifidobacterium infantis Bifidobacterium longum More Products Resources Read all

Glomus intraradices is a mycorrhizal fungus that enhances plant nutrient uptake, especially phosphorus, promoting stronger crop growth, yield, and soil health in agriculture. < Microbial Species Arbuscular Mycorrhizal Fungi Arbuscular mycorrhizal fungi (AMF) establish mutualistic associations with the roots of approximately 80% of terrestrial plant species. Through an extensive extraradical hyphal network, AMF significantly expand the absorptive surface area of root systems, facilitating enhanced uptake of essential nutrients—particularly phosphorus, nitrogen, and micronutrients—beyond the depletion zones of roots. In addition to nutrient acquisition, AMF play a key role in improving plant tolerance to abiotic stresses such as drought, salinity, and heavy metal toxicity by modulating physiological responses and maintaining water balance. At the ecosystem level, AMF contribute to soil aggregation and long-term fertility by secreting glomalin and stabilizing soil particles. This symbiosis forms a foundational component of belowground biodiversity and function, offering a biologically-driven pathway to improved plant performance and soil resilience in both natural and managed systems. Product Enquiry What Why Benefits Practical Applications Buying Guide Maximizing Success FAQ What Are AMF? Arbuscular mycorrhizal fungi (AMF) are beneficial soil microorganisms that form symbiotic relationships with over 80% of terrestrial plant species. These specialized fungi belong to the phylum Glomeromycota and create intricate networks of microscopic hyphae that extend far beyond plant root systems, effectively serving as extensions of the root network. The symbiotic relationship involves the fungi colonizing plant roots both intracellularly and intercellularly, forming characteristic structures called arbuscules where nutrients are exchanged between the fungus and the plant. mdpi+2 In this mutualistic partnership, plants provide the fungi with sugars produced through photosynthesis, while the AMF dramatically enhance the plant's ability to absorb essential nutrients—particularly phosphorus, nitrogen, and micronutrients—from the soil. This ancient symbiosis, which has existed for approximately 400 million years, represents one of nature's most successful collaborative relationships. mdpi+2 Why AMF Are Essential for Sustainable Agriculture The importance of arbuscular mycorrhizal fungi for sale in modern agriculture cannot be overstated, particularly as the industry faces mounting challenges from climate change, soil degradation, and the need for sustainable farming practices. mdpi Enhanced Nutrient Uptake and Bioavailability AMF excel at improving plant access to immobile nutrients, especially phosphorus, which is often present in soil but locked in forms plants cannot directly absorb. The extensive hyphal networks can explore soil volumes up to 100 times larger than roots alone, accessing nutrients from micropores and soil aggregates that roots cannot penetrate. Studies demonstrate that up to 80% of plant phosphorus uptake can occur through mycorrhizal pathways rather than direct root absorption. nph.onlinelibrary.wiley+3 Soil Health and Structure Improvement These beneficial fungi produce glomalin, a glycoprotein that acts as a natural soil binding agent, creating stable soil aggregates that improve water retention, reduce erosion, and enhance overall soil structure. This aggregation increases water infiltration rates, reduces surface runoff, and provides better gas exchange within the soil profile. frontiersin Stress Tolerance and Resilience Plants colonized by AMF demonstrate significantly improved tolerance to various environmental stresses, including drought, salinity, heavy metals, and temperature extremes. Research shows that mycorrhizal plants can maintain higher photosynthetic rates and biomass production under stress conditions compared to non-mycorrhizal counterparts. frontiersin+1 FAQ General Questions How long does it take to see benefits from AMF inoculation? Initial root colonization typically occurs within 2-4 weeks of application, with visible plant benefits becoming apparent after 6-8 weeks. Maximum benefits develop over the entire growing season as the fungal network matures. AMF improve nutrient and water uptake in plants, boosting growth and stress tolerance. Related: Benefits & Applications of AMF Can AMF be used with all plant species? AMF form symbiotic relationships with approximately 80% of plant species. Notable exceptions include members of the Brassicaceae family (cabbage, broccoli, radishes) and some other plant families that do not form mycorrhizal associations.hey enhance root development, nutrient efficiency, and biomass, increasing overall yield. Related: Major Role of Arbuscular Mycorrhizal Fungi in Plant Growth Do AMF work in all soil types? AMF can function in most soil types but are particularly beneficial in nutrient-poor soils or those with low phosphorus availability. They are less effective in soils with very high phosphorus levels, which can suppress symbiotic development. Learn more in details . academic.oup+2 How do soil pH and environmental conditions affect AMF? AMF can tolerate a wide pH range (5.0-8.5) but function optimally in slightly acidic to neutral soils (pH 6.0-7.5). Extreme pH conditions can limit fungal diversity and effectiveness. Learn more in details. frontiersin+1 Application and Management What should growers know before using arbuscular mycorrhizal fungi? Growers should understand how AMF colonise plant roots, exchange nutrients with plants and respond to soil and crop-management conditions. This complete guide to arbuscular mycorrhizal fungi explains their biology, functions and practical agricultural importance. When should I avoid using chemical fertilizers with AMF? High levels of readily available phosphorus (>50 ppm) can inhibit AMF development. When using AMF, reduce phosphorus fertilizer applications and rely on the fungi to improve phosphorus availability from existing soil reserves. pmc.ncbi.nlm.nih Can I apply AMF through irrigation systems? Yes, properly formulated liquid AMF products can be applied through drip irrigation or fertigation systems. Ensure the product is designed for irrigation use and filter out any large particles that might clog emitters. rd2 What happens to AMF during soil cultivation? Intensive tillage can damage fungal networks and reduce AMF effectiveness. When possible, use minimal tillage practices or reapply AMF after soil disturbance. AMF are used as seed coatings, root dips, or soil amendments to improve crop growth. Related: Benefits and Functions of AMF How do I know if my AMF application was successful? Root colonization assessment requires laboratory analysis, but indicators of successful inoculation include improved plant vigor, enhanced stress tolerance, and reduced fertilizer requirements. Soil tests may show improved nutrient availability over time. Troubleshooting and Optimization Can arbuscular mycorrhizal fungi act as both biostimulants and biocontrol agents? Yes. AMF may function as biostimulants by supporting nutrient acquisition and plant development, while their root interactions can also contribute to plant defence against certain soil-borne stresses. Learn more about arbuscular mycorrhizal fungi as biostimulant and biocontrol agents . Why might AMF inoculation fail to show benefits? Common causes include poor product quality, inappropriate storage, excessive phosphorus fertilization, fungicide applications, extreme soil conditions, or application to non-host plant species. AMF enhance nutrient absorption, improve soil structure, and support sustainable agriculture. Related: AMF Benefits & Applications Can I make my own AMF inoculum? While possible, producing quality AMF inoculum requires specialized techniques and equipment. Commercial products typically provide more consistent results and guaranteed quality standards. projects.sare How do AMF interact with existing soil microorganisms? AMF generally work synergistically with beneficial soil microorganisms and can even help recruit beneficial bacteria to the root zone. However, they may compete with pathogenic organisms for resources and root colonization sites.AMF boost nutrient uptake, improve vine health, stress tolerance, and grape quality. Related: Benefits & Applications of AMF Where are AMF naturally present? AMF are found in most agricultural soils, grasslands, forests, and around plant roots. Related: What Do AMF Do? What are the different types of arbuscular mycorrhizae? Arbuscular mycorrhizae include different genera and species with varying host compatibility, ecological behaviour and adaptation to soil conditions. Read this scientific guide to the different types of arbuscular mycorrhizae for a detailed classification What’s the difference between ECM and AMF? ECM form a sheath on roots (trees), AMF penetrate root cells (crops), both improve nutrient uptake. Related: What Do AMF Do? How can farmers increase native AMF populations in agricultural soil? Farmers can encourage native AMF by maintaining living roots, reducing unnecessary soil disturbance, using appropriate crop rotations and avoiding excessive phosphorus inputs. See these practical methods to increase arbuscular mycorrhizal fungi in soil . Where can growers obtain arbuscular mycorrhizal fungi for crop use? Growers can obtain AMF through suitable commercial inoculants or identify them within biologically active root-zone soils. Product selection should consider fungal species, propagule viability, formulation and intended crop. Read more about where to find arbuscular mycorrhizal fungi . Why are arbuscular mycorrhizal fungi valuable for field crops? AMF can extend the effective nutrient-absorbing area around crop roots, making them particularly relevant to field crops grown under nutrient, moisture or soil-structure constraints. Explore the value of arbuscular mycorrhizal fungi for field crops . Which crops are better suited to AMF than ectomycorrhizal fungi? AMF commonly associate with many agricultural and horticultural crops, whereas ectomycorrhizal fungi are primarily associated with particular trees and woody plants. This guide explains the key differences between ectomycorrhizal and arbuscular mycorrhizal fungi How do arbuscular mycorrhizal fungi support grapevines? In grapevines, AMF can support nutrient acquisition, root-zone activity, water relations and adaptation to environmental stress. Their effectiveness depends on vineyard soil, fungal compatibility and management practices. Read more about arbuscular mycorrhizal fungi and grapevines Practical Applications of AMF Agricultural Applications Field Crops: AMF have demonstrated particular effectiveness in cereals, legumes, and root vegetables. In maize production, inoculation consistently improves nutrient uptake and stress tolerance. Soybeans show enhanced nodulation and nitrogen fixation when co-inoculated with both rhizobia and AMF.mdpi+2 Horticultural Systems: Vegetable production benefits significantly from mycorrhizal inoculation, with improved transplant success rates, enhanced fruit quality, and reduced fertilizer requirements. Greenhouse production systems see particular benefits due to the controlled environment's compatibility with fungal establishment.scielo Fruit Tree Production: Orchard crops demonstrate improved establishment, drought tolerance, and fruit production when inoculated with AMF. The symbiosis is particularly valuable during the vulnerable establishment period following planting.indogulfbioag Specialized Growing Systems Hydroponic Integration: Recent research demonstrates that AMF can be successfully integrated into hydroponic systems, providing benefits even in soilless growing media. The fungi help maintain root health and improve nutrient utilization in these intensive production systems.indogulfbioag Restoration and Rehabilitation: AMF are essential for ecosystem restoration projects, helping establish plant communities on degraded soils and improving long-term site stability.mdpi Urban Agriculture: Container growing and rooftop gardens benefit from AMF inoculation, which helps plants cope with the limited soil volumes and stressful conditions common in urban environments. Comprehensive Buying Guide for AMF Quality Indicators and Standards When selecting arbuscular mycorrhizal fungi for sale, several critical factors determine product quality and effectiveness:lebanonturf+1 Spore Count and Viability: High-quality products contain minimum concentrations of 100-300 viable spores per gram, with clear labeling of spore density at manufacture date. Products should include expiration dates and guarantee viability throughout the specified shelf life.cdnsciencepub+1 Species Diversity: Premium formulations contain multiple AMF species to ensure compatibility across different plant types and soil conditions. Look for products containing proven effective strains such as Rhizophagus irregularis, Funneliformis mosseae, and Claroideoglomus etunicatum.rd2+1 Carrier and Formulation Quality: Stable formulations avoid ingredients that can desiccate or kill fungal propagules. Quality products use inert carriers and avoid excessive moisture or soluble salts that compromise fungal viability.lebanonturf Product Types and Formulations Granular Products: Ideal for soil incorporation during planting or transplanting. These products typically have longer shelf life and are easier to handle in larger applications.rd2 Liquid Concentrates: Suitable for drip irrigation systems and foliar applications, though they may have shorter shelf life and require careful storage.rd2 Powder Formulations: Excellent for seed coating and root dipping applications, offering precise application control and good soil integration.rd2 Tablet or Slow-Release Forms: Convenient for individual plant applications, particularly in landscaping and containerized plant production. Storage and Handling Requirements Proper storage is critical for maintaining fungal viability:lebanonturf Temperature Control: Store products at cool, consistent temperatures, ideally between 50-70°F (10-21°C). Avoid exposure to freezing temperatures or excessive heat. Moisture Management: Maintain low moisture conditions to prevent premature spore germination while avoiding desiccation. Optimal moisture content typically ranges from 5-10%. Light Protection: Store products in opaque containers away from direct sunlight, which can damage fungal propagules. Chemical Compatibility: Keep AMF products separate from fungicides, chemical fertilizers, and other compounds that may reduce fungal viability. Scientific Benefits of AMF Quantifiable Agricultural Impacts Recent meta-analyses provide compelling evidence for AMF effectiveness in agricultural systems. A comprehensive study of 231 potato field trials across Europe and North America revealed an average yield increase of 9.5% (3.9 tons/hectare), with nearly 80% of trials exceeding the profitability threshold. Similar benefits have been documented across diverse crops, with some studies reporting yield increases of 50% or more in nutrient-limited soils.pmc.ncbi.nlm.nih+1 Biocontrol and Disease Resistance AMF provide natural protection against soil-borne pathogens through multiple mechanisms:indogulfbioag+1 Competition for Resources: The fungi outcompete harmful microorganisms for root colonization sites and soil nutrients. Induced Systemic Resistance (ISR): AMF trigger the plant's natural defense mechanisms, creating a primed immune system that responds more effectively to pathogen attacks.frontiersin Physical Barriers: The fungal networks create protective biofilms around roots that prevent pathogen infiltration. Enhanced Plant Health: Better-nourished plants with robust root systems are naturally more resistant to disease and pest pressure. Carbon Sequestration and Climate Benefits AMF play a crucial role in global carbon cycling, with estimates suggesting they sequester approximately 13 gigatons of CO₂ equivalent annually—equivalent to 36% of annual fossil fuel emissions. The fungi facilitate carbon translocation from plants into soil aggregates, where it remains stable for extended periods.indogulfbioag Maximizing Success with AMF Best Practices for Implementation Start Early: Apply AMF at planting or transplanting for optimal colonization and maximum benefit duration.mycorrhizae+1 Create Favorable Conditions: Maintain appropriate soil moisture, avoid excessive chemical inputs, and minimize soil disturbance to support fungal establishment.pmc.ncbi.nlm.nih Monitor and Adjust: Track plant performance, soil health indicators, and adjust fertilizer programs to complement AMF activity.agrarforschungschweiz Quality Assurance: Source products from reputable suppliers with quality guarantees and proper storage recommendations.lebanonturf+1 Integration with Sustainable Agriculture AMF represent a cornerstone technology for sustainable agricultural systems, offering multiple benefits that align with environmental stewardship goals. By reducing dependence on chemical fertilizers, improving soil health, and enhancing crop resilience, these beneficial fungi contribute to agricultural systems that are both productive and environmentally responsible.maxapress+1 The growing body of scientific evidence supporting AMF effectiveness, combined with improving product quality and application techniques, positions arbuscular mycorrhizal fungi as an essential tool for modern agriculture. As farmers and growers increasingly recognize the value of biological solutions, AMF adoption will continue to expand, contributing to more sustainable and resilient food production systems worldwide. Through careful product selection, proper application, and integration with sound agricultural practices, arbuscular mycorrhizal fungi for sale offer producers a proven pathway to enhanced crop performance, improved soil health, and sustainable agricultural success. Arbuscular Mycorrhizal Fungi Our Products Explore our premium AMF products, specially formulated to enhance nutrient uptake, boost root growth, and improve plant resilience in agricultural soils, fostering healthier, high-yield crops. Glomus mosseae Glomus mosseae (Funneliformis mosseae) is a highly effective and widely distributed species of arbuscular mycorrhizal fungus (AMF). These fungi are obligate biotrophs, meaning they form a symbiotic (mutualistic) relationship with the roots of over 80% of terrestrial plant species, including a vast majority of agricultural and horticultural crops. This partnership enhances plant growth, improves nutrient uptake, and increases tolerance to various environmental stresses. G. mosseae is recognized for its broad host range and adaptability to diverse soil conditions, making it a valuable component of sustainable agricultural and horticultural practices. View Species Rhizophagus Intraradices Rhizophagus intraradices (previously Glomus intraradices) is an arbuscular mycorrhizal fungus used in agriculture, that improves root structure enhances plant nutrient uptake, especially phosphorus, improving plant growth, stress resilience, and soil health in sustainable agriculture. View Species Serendipita indica Serendipita indica (formerly Piriformospora indica) is a highly effective endophytic fungus recognized for significantly boosting plant growth, resilience, and productivity through beneficial root colonization. Known for its wide range of beneficial effects, Serendipita indica is extensively utilized in agriculture, horticulture, forestry, and medicinal plant cultivation to optimize plant health and performance. View Species 1 1 ... 1 ... 1 Resources Read all

Indogulf BioAg is a Manufacturer & Global Exporter of Larvicides for plants, bacillus thuringiensis israelensis, Lysinibacillus Sphaericus & other Bacterias. Contact us @ +1 437 774 3831 < Microbial Species Larvicides Larvicides are highly effective solutions for managing the larval stages of harmful pests in agriculture and public health. By targeting larvae directly, larvicides disrupt pest life cycles, reducing populations and minimizing damage to crops and the environment. These products offer a sustainable and precise alternative to broad-spectrum pesticides, especially when integrated with environmentally conscious farming practices. Product Enquiry What Why How FAQ What it is Larvicides are biological or chemical substances specifically designed to kill insect larvae. In agricultural and pest management contexts, larvicides are crucial for controlling pests that cause significant damage, such as plant hoppers and soil-borne insect pests. Key larvicidal agents include beneficial bacteria like Lysinibacillus sphaericus , Bacillus thuringiensis israelensis , Bacillus popilliae , and Bacillus thuringiensis kurstaki , which provide environmentally friendly pest control solutions. Larvicides are substances or agents specifically designed to kill the larval stage of insects, particularly mosquitoes and other pest species. Larvicides are crucial tools in integrated vector management (IVM) programs aimed at controlling insect-borne diseases such as malaria, dengue fever, and Zika virus. Why is it important Larvicides are biological or chemical substances specifically designed to kill insect larvae. In agricultural and pest management contexts, larvicides are crucial for controlling pests that cause significant damage, such as plant hoppers and soil-borne insect pests. Key larvicidal agents include beneficial bacteria like Lysinibacillus sphaericus , Bacillus thuringiensis israelensis , Bacillus popilliae , and Bacillus thuringiensis kurstaki , which provide environmentally friendly pest control solutions. Larvicides are substances or agents specifically designed to kill the larval stage of insects, particularly mosquitoes and other pest species. Larvicides are crucial tools in integrated vector management (IVM) programs aimed at controlling insect-borne diseases such as malaria, dengue fever, and Zika virus. FAQ What are examples of larvicides? Common examples of larvicides include biological agents such as Bacillus thuringiensis israelensis (Bti) and Bacillus sphaericus , as well as chemical larvicides like methoprene and temephos. Biological larvicides are widely preferred due to their specificity and environmental safety. View more in details. What is the function of larvicide? The primary function of a larvicide is to control mosquito populations by targeting and killing larvae before they develop into adult mosquitoes. This prevents breeding cycles and reduces the spread of mosquito-borne diseases. Get more in details . What are the forms of larvicides? Larvicides are available in several formulations, including: Tablets or briquettes Granules Liquid concentrates Water-dispersible powders Each form is designed for specific application environments such as standing water, ponds, drains, or large water bodies. Does larvicide kill mosquitoes? Larvicides do not typically kill adult mosquitoes. Instead, they specifically target mosquito larvae in water, preventing them from maturing into biting adults. This makes larvicides a highly effective preventive control method. What is the best chemical to get rid of mosquitoes? The “best” solution depends on the stage of the mosquito lifecycle. For larval control, biological larvicides like Bti are highly effective and environmentally safe. For adult mosquitoes, insecticides may be used, but integrated approaches combining larvicides and environmental management are most effective. What is the best time to apply larvicide? The best time to apply larvicides is early in the mosquito breeding cycle, when larvae are present in standing water. Regular monitoring and application after rainfall or water accumulation ensure optimal control. Are larvicides harmful to humans? Most modern larvicides, especially biological ones like Bti, are considered safe for humans, animals, and non-target organisms when used as directed. They specifically target mosquito larvae and have minimal environmental impact. How to use mosquito larvicide? To use mosquito larvicide effectively: Identify standing water where mosquitoes breed Apply the appropriate formulation (tablet, granule, or liquid) Follow recommended dosage instructions Reapply as needed, especially after rainfall Proper application ensures effective control of mosquito populations at the source. How it works Larvicides employ various modes of action to control mosquito larvae: Larvicides employ various mechanisms to control pest larvae, ensuring precision and effectiveness: Toxin Production : Beneficial bacteria like Bacillus thuringiensis (Bt) produce crystal proteins that disrupt the digestive systems of insect larvae, leading to their death. Bacillus thuringiensis israelensis (Bti), for example, is particularly effective against mosquito larvae, while Bacillus popilliae targets grubs of scarab beetles. Endotoxins and Pathogenicity : Lysinibacillus sphaericus produces highly specific endotoxins that paralyze mosquito larvae, reducing populations in stagnant water bodies and agricultural fields. Soil-Borne Pest Control : Bacterial larvicides combat root-feeding pests, preserving plant root health and promoting crop productivity. Chemical Larvicides : Chemical larvicides, such as synthetic insect growth regulators (IGRs) or organophosphates, disrupt the development of mosquito larvae, preventing them from reaching adulthood. Physical Larvicides : Some larvicides, such as oils or monomolecular films, create a physical barrier on the water surface, suffocating mosquito larvae by blocking their access to oxygen. Integrated Larvicidal Strategies Effective larvicidal programs often involve a combination of larvicides with larval habitat management, community engagement, and surveillance efforts. This integrated approach maximizes the impact of larvicides while minimizing environmental risks and promoting sustainable pest management practices. Larvicides Our Products Explore our range of premium Larvicides tailored to meet your agricultural needs, providing effective control over larvae populations and safeguarding your crops. Bacillus popilliae Bacillus popilliae a beneficial bacterium targeting Japanese beetle grubs. Safe for non-target organisms, no adverse effects on humans or environment. Provides long-term pest control without residue. View Species Bacillus thuringiensis israelensis Bacillus thuringiensis israelensis (Bti) is a naturally occurring bacterium that has revolutionized pest control with its environmentally friendly and highly effective approach. Bti specifically targets the larvae of mosquitoes, blackflies, and fungus gnats, making it an essential tool for managing pests in residential, agricultural, and commercial settings. When applied to breeding sites, Bti releases protein toxins that are ingested by the larvae. These toxins disrupt the larvae's digestive system, leading to their death within hours. Remarkably, Bti’s mechanism of action is species-specific, ensuring that it poses no harm to beneficial insects, plants, animals, or humans. Additionally, it breaks down quickly in the environment, leaving no harmful residues behind. This powerful yet safe solution is a cornerstone in integrated pest management, trusted by professionals worldwide for its ability to protect public health and the environment. From controlling mosquitoes that spread diseases to managing agricultural pests, Bti provides a sustainable alternative to chemical insecticides. View Species Bacillus thuringiensis subsp. kurstaki Bacillus thuringiensis subsp. kurstaki (Btk) is a gram-positive, spore-forming bacterium naturally found in soils worldwide. It is renowned for its specificity and effectiveness in managing lepidopteran pests, particularly during the larval stage. As a biological insecticide, Btk has become a cornerstone of integrated pest management (IPM) and organic agriculture, combining high efficacy with environmental safety. View Species Lysinibacillus sphaericus Lysinibacillus sphaericus, bacterium targeting mosquito larvae and other insect pests like gold-fringed moths and rice stem borers. Safe for non-target species and rapidly degrades in the environment. View Species 1 1 ... 1 ... 1 Resources Read all

Agricultural Probiotics, Organic Fertilizers, Organic Fertilizers manufacturer < Microbial Species Product Name Description Strength 1 x 10⁸ CFU per gram / 1 x 10⁹ CFU per gram Product Enquiry Buy Now Benefits Dosage & Application Additional Info Scientific References Mode of Action FAQ Dosage & Application Sample text Additional Info Sample text FAQ Scientific References Mode of Action Related Products More Products Resources Read all

Bioremediation is the process of using living organisms, primarily microbes, to degrade, detoxify, or remove pollutants from the environment, such as soil, water, or air. Microorganisms like bacteria, fungi, and even plants are utilized to break down harmful substances into less toxic or non-toxic compounds. < Microbial Species Bioremediation Bioremediation is an eco-friendly process that uses microorganisms to break down or neutralise pollutants in soil, water, and air. By harnessing the natural metabolic processes of bacteria, fungi, and other microbes, bioremediation helps clean up contaminants such as oil spills, heavy metals, and industrial waste, making it an effective solution for environmental restoration. Product Enquiry What Why How FAQ What it is Bioremediation is the process of using living organisms, primarily microbes, to degrade, detoxify, or remove pollutants from the environment, such as soil, water, or air. Microorganisms like bacteria, fungi, and even plants are utilized to break down harmful substances into less toxic or non-toxic compounds. Why is it important Bioremediation is vital because it offers an eco-friendly and cost-effective solution to pollution problems. Unlike chemical methods, it reduces the use of harmful substances, helping restore contaminated ecosystems and protect human health. Its importance is amplified in treating oil spills, heavy metal contamination, and industrial waste. How it works Microorganisms metabolize pollutants as part of their natural processes. They can either convert harmful chemicals into less toxic ones or completely degrade them. Depending on the contaminant and environment, the bioremediation process may involve stimulating natural microbial activity (biostimulation) or introducing specific microbes (bioaugmentation) that are more effective at breaking down certain pollutants. FAQ Content coming soon! Bioremediation Our Products Explore our premium Bioremediation solutions designed to degrade pollutants, restore environmental balance, and improve soil and water quality through the power of specialized microbial species. Saccharomyces cerevisiae Saccharomyces cerevisiae is widely used in bioremediation for its ability to degrade pollutants and in probiotic applications to support gut health and enhance fermentation processes. View Species Bacillus polymyxa Bacillus polymyxa improves phosphorus availability by solubilizing phosphate, promotes plant growth through nitrogen fixation and hormone production, and aids bioremediation by breaking down organic pollutants—enhancing soil health for sustainable agriculture. View Species Thiobacillus novellus Thiobacillus novellus, an effective inoculant that oxidizes sulfur, enhancing nutrient availability for plants while supporting bioremediation in contaminated soils. View Species Thiobacillus thiooxidans Acidithiobacillus thiooxidans is a potent sulfur-oxidizing bacterium that enhances soil sulfur availability, drives bioleaching of metals, and contributes to wastewater and sludge treatment, supporting sustainable agriculture and bioremediation. View Species Alcaligenes denitrificans Alcaligenes denitrificans is a denitrifying bacterium that plays a crucial role in the nitrogen cycle. It reduces nitrates (NO₃⁻) to nitrogen gas (N₂) under anoxic conditions, effectively mitigating nitrate pollution in agricultural runoff and wastewater. This bacterium is also utilized in bioremediation projects to address nitrogen-related contamination, contributing to sustainable water management and soil health. Its activity helps balance nitrogen levels, reducing environmental impacts and supporting ecosystem stability. View Species Bacillus licheniformis Bacillus licheniformis is a robust, spore-forming bacterium widely recognized for its diverse applications in agriculture, bioremediation, and industrial processes. It enhances soil fertility by solubilizing phosphorus, fixing nitrogen, and producing plant growth-promoting substances like phytohormones. This bacterium also produces enzymes such as proteases, amylases, and cellulases, which contribute to the decomposition of organic matter and nutrient cycling. In bioremediation, B. licheniformis degrades pollutants, including hydrocarbons, and tolerates extreme environmental conditions. Additionally, its ability to produce antimicrobial compounds helps suppress plant pathogens, making it a valuable tool for sustainable agriculture and environmental management. View Species Bacillus macerans Bacillus macerans is a facultative anaerobic bacterium known for its ability to degrade complex carbohydrates such as cellulose, hemicellulose, and starch. This activity makes it highly effective in organic decomposition processes, such as composting and agricultural residue management, contributing to improved soil health and nutrient cycling. In industrial applications, B. macerans produces valuable enzymes like cellulases and amylases, which are used in biofuel production, paper processing, and textile industries. Its role in breaking down organic polymers also supports bioremediation efforts, helping manage agricultural and industrial waste sustainably.. View Species Citrobacter braakii Citrobacter braakii is a facultative anaerobic bacterium known for its metabolic versatility and potential in environmental and industrial applications. It is effective in bioremediation processes, particularly in removing heavy metals like chromium and cadmium through biosorption and bioaccumulation. This bacterium also contributes to nutrient cycling in soils by breaking down organic matter and releasing bioavailable forms of nutrients. Its ability to tolerate diverse environmental conditions makes it a candidate for wastewater treatment and soil remediation, supporting sustainable environmental management practices. View Species Citrobacter freundii Citrobacter freundii is a facultative anaerobic bacterium with significant roles in bioremediation, agriculture, and wastewater treatment. Known for its ability to reduce nitrates and detoxify heavy metals such as cadmium, lead, and chromium, it is widely used in mitigating environmental pollution. In agriculture, C. freundii contributes to nutrient cycling by breaking down organic matter, enhancing soil fertility. It also aids in wastewater treatment by degrading complex organic compounds, reducing chemical oxygen demand (COD), and improving water quality. With its metabolic flexibility and environmental resilience, C. freundii is a valuable tool in sustainable environmental management and industrial processes.. View Species Comamonas testosteroni Comamonas testosteroni is a versatile, aerobic, gram-negative bacterium renowned for its ability to degrade a wide range of organic pollutants, including aromatic hydrocarbons, phenols, and pesticides. This metabolic diversity makes it a critical agent in bioremediation projects aimed at detoxifying contaminated soils and water bodies. In wastewater treatment, C. testosteroni enhances the breakdown of complex organic compounds, reducing chemical oxygen demand (COD) and improving water quality. Its role in degrading xenobiotics and persistent organic pollutants highlights its significance in environmental sustainability and industrial waste management. The bacterium's resilience in diverse conditions further underscores its utility in eco-friendly applications. View Species Flavobacter aquatile Flavobacterium aquatile is an aquatic bacterium known for its role in nutrient cycling and organic matter decomposition in freshwater environments. It contributes to maintaining water quality by breaking down organic materials, such as carbohydrates and proteins, into bioavailable nutrients that support aquatic ecosystems. This bacterium also plays a role in wastewater treatment, aiding in the degradation of organic pollutants and reducing nutrient loads. Its ecological importance lies in its ability to enhance microbial diversity and stability in water systems, making it a valuable component in sustainable water management practices. View Species Flavobacter oceanosedimentum Flavobacterium oceanosedimentum is a marine bacterium commonly found in ocean sediments, where it plays a critical role in nutrient cycling and organic matter decomposition. This bacterium degrades complex organic materials, contributing to the recycling of nutrients essential for marine ecosystem health. Additionally, F. oceanosedimentum demonstrates potential in bioremediation, particularly in degrading hydrocarbons and other pollutants in marine environments. Its metabolic adaptability and ability to thrive in challenging sediment conditions make it a valuable organism for maintaining ecological balance and supporting sustainable marine resource management. View Species Nitrobacter alcalicus Nitrobacter alkalicus is a chemolithoautotrophic bacterium specializing in the oxidation of nitrite (NO₂⁻) to nitrate (NO₃⁻), a key step in the nitrogen cycle. This species is particularly adapted to thrive in alkaline environments, such as high-pH soils and wastewater systems, where it contributes to nitrogen transformation and nutrient availability for plants. Its activity supports soil fertility by enhancing nitrate levels, which are readily absorbed by crops. Additionally, N. alkalicus plays a significant role in wastewater treatment processes, helping to manage nitrogen levels and prevent harmful nitrite accumulation. Its resilience in high-pH conditions makes it essential for sustainable agricultural practices and environmental management. View Species Nitrobacter sp. Nitrobacter sp. are chemolithoautotrophic bacteria that play a critical role in the nitrogen cycle by oxidizing nitrite (NO₂⁻) into nitrate (NO₃⁻), a form readily available to plants as a nutrient. This process is vital for maintaining soil fertility and supporting agricultural productivity. In wastewater treatment, Nitrobacter species are integral to nitrification processes, preventing the accumulation of toxic nitrite and reducing nitrogen pollution. Their adaptability to diverse environmental conditions, including soil, freshwater, and wastewater systems, makes them indispensable in sustainable nitrogen management and ecological balance. These bacteria are widely utilized in bioreactors and bioaugmentation efforts for efficient nitrogen cycling. View Species Nitrobacter winogradski Nitrobacter winogradskyi is a chemolithoautotrophic bacterium central to the nitrogen cycle, converting nitrite (NO₂⁻) into nitrate (NO₃⁻). This transformation is critical for soil fertility, as nitrate is a primary nutrient for plant growth. Its activity supports sustainable agriculture by enhancing nitrogen availability in the soil. In environmental management, N. winogradskyi is essential in wastewater treatment processes, where it prevents toxic nitrite accumulation, ensuring efficient nitrogen removal. Its adaptability to various ecosystems, including soils and aquatic environments, underscores its role in maintaining ecological balance and promoting sustainable nitrogen management. This bacterium is also widely used in bioaugmentation and bioreactor systems to optimize nitrification. View Species Nitrococcus mobilis Nitrococcus mobilis is a chemolithoautotrophic bacterium primarily found in marine environments, where it plays a crucial role in the nitrogen cycle. This organism oxidizes nitrite (NO₂⁻) into nitrate (NO₃⁻), facilitating nitrogen transformation in oceanic ecosystems and supporting the productivity of aquatic life. Its role in maintaining nitrogen balance makes N. mobilis a key player in nutrient cycling, particularly in coastal and deep-sea environments. Additionally, its metabolic versatility and ability to thrive in saline conditions highlight its importance in sustaining marine ecosystems and contributing to global nitrogen dynamics. View Species Nitrosomonas europaea Nitrosomonas europaea is a chemolithoautotrophic bacterium that plays a vital role in the nitrogen cycle by oxidizing ammonia (NH₃) into nitrite (NO₂⁻), a key step in nitrification. This process is essential for converting ammonia into forms that plants can utilize, supporting soil fertility and agricultural productivity. In wastewater treatment, N. europaea is integral to removing ammonia, preventing toxic buildup, and ensuring efficient nitrogen removal. Its adaptability to diverse environments, including soils, freshwater, and wastewater systems, makes it a valuable organism for sustainable nitrogen management and environmental remediation. Its role in mitigating ammonia pollution also supports ecosystem health and biodiversity. View Species Pseudomonas citronellolis Azospirillum brasilense, a plant growth-promoting bacterium, significantly enhances root development and nutrient uptake in crops such as wheat, maize, and rice. This leads to improved plant growth, higher nutrient efficiency, and increased yields, making it a valuable tool for sustainable agriculture." Supporting References: Azospirillum has been shown to improve root development and nutrient uptake, enhancing crop yields under various conditions (Okon & Itzigsohn, 1995). Inoculation with Azospirillum brasilense increases mineral uptake and biomass in crops like maize and sorghum (Lin et al., 1983). Studies have documented up to 29% increased grain production when maize was inoculated with Azospirillum brasilense, particularly when combined with nutrient applications (Ferreira et al., 2013). Enhanced growth and nutrient efficiency in crops such as lettuce and maize have also been reported, supporting its role in sustainable agriculture (da Silva Oliveira et al., 2023) (Marques et al., 2020). View Species 1 2 1 ... 1 2 ... 2 Resources Read all

Plant growth promoters that support root development and early crop establishment. Manufacturer and global exporter of microbial and biostimulant inputs. < Microbial Species Plant Growth Promoters Plant Growth Promoters products, often containing beneficial microorganisms or natural compounds, promote overall plant health and development, enhancing growth rates and crop yields. Product Enquiry What Why How FAQ What it is Plant growth promoters, also known as phytohormones, are naturally occurring chemical substances that regulate various physiological processes in plants. These hormones act as chemical messengers, influencing growth, development, and responses to environmental stimuli. The main classes of plant hormones include auxins, cytokinins, gibberellins, ethylene, and abscisic acid, each playing specific roles in plant growth and adaptation. Why is it important Regulation of Growth : Plant hormones control fundamental processes such as cell elongation, cell division, and differentiation, which are essential for overall plant growth and development. Developmental Processes : Hormones like auxins and cytokinins regulate processes such as seed germination, root and shoot growth, flowering, and fruit development. Environmental Responses : Hormones such as ethylene and abscisic acid help plants respond to environmental stresses such as drought, flooding, temperature extremes, and pathogen attacks. Crop Yield and Quality : Proper hormone regulation can enhance crop yield by optimizing growth patterns, improving nutrient uptake, and ensuring efficient use of resources. How it works Auxins : Stimulate cell elongation, regulate apical dominance, promote phototropism and gravitropism. Production : Synthesized in shoot tips, young leaves, and developing seeds. Cytokinins : Promote cell division, delay aging (senescence), enhance nutrient mobilization, and counteract apical dominance. Production : Produced in actively growing tissues like roots, embryos, and fruits. Gibberellins : Stimulate stem elongation, promote seed germination, regulate flowering and fruit development. Production : Synthesized in roots, young leaves, and seeds. Ethylene : Regulate fruit ripening, leaf and flower senescence, and response to stress (e.g., flooding, injury). Production : Produced in response to stress and during fruit ripening. Abscisic Acid (ABA) : Control seed dormancy and germination, regulate stomatal closure in response to drought, and promote stress tolerance. Production : Synthesized in response to stress conditions and present in seeds and mature leaves. Interaction and Regulation : Plant hormones often interact synergistically or antagonistically to coordinate growth and development processes. Environmental factors influence hormone production and their effects, allowing plants to adapt and thrive in varying conditions. Understanding the roles and mechanisms of plant growth hormones is crucial for optimizing agricultural practices, improving crop productivity, and enhancing plant resilience to environmental challenges. FAQ Content coming soon! Plant Growth Promoters Our Products Explore our range of premium Plant Growth Promoters tailored to meet your agricultural needs, stimulating robust growth and maximizing yield potential. Bacillus amyloliquefaciens Bacillus amyloliquefaciens, produces plant growth hormones, suppresses pathogens with enzymes, acts as biofertilizer and biopesticide, improves soil fertility, safe for non-target species and humans. View Species Bacillus azotoformans Used as seed inoculant, enhances germination and root development, improves water and nutrient transport, environmentally safe. View Species Bacillus circulans Bacillus circulans produces indoleacetic acid, solubilizes phosphorus improving absorption, enhances plant growth and yield, safe and eco-friendly. View Species Bacillus pumilus Bacillus pumilus produces antibiotics against pathogens, enhances nutrient uptake and drought tolerance, effective biocontrol agent, environmentally safe. View Species Pseudomonas fluorescens Pseudomonas fluorescens suppresses soil-borne pathogens, produces antibiotics and siderophores, enhances nutrient availability, improves root growth and disease resistance. View Species Pseudomonas putida Pseudomonas putida produces growth-promoting substances, degrades organic pollutants in soil, improves soil structure and nutrient availability, enhances plant stress tolerance. View Species Rhodococcus terrae Rhodococcus terrae enhances soil structure and nutrient availability, degrades organic pollutants, promotes plant growth with growth-promoting substances, improves root development and stress tolerance. View Species Vesicular arbuscular mycorrhiza Vesicular Arbuscular Mycorrhiza (VAM) is a beneficial fungus that enhances plant root absorption, improves soil structure, and increases nutrient uptake. It forms a symbiotic relationship with roots, boosting plant growth, drought resistance, and soil fertility for healthier, more resilient crops. View Species Williopsis saturnus Williopsis saturnus enhances nutrient uptake, improves soil fertility, suppresses soil-borne pathogens, promotes root development and yield, contributes to environmental sustainability, effective in agriculture. View Species 1 1 ... 1 ... 1 Resources Read all

Indogulf BioAg is a Manufacturer & Global Exporter of Sulphur Solubilizing, Acidithiobacillus Thioxidans, Thiobacillus Novellus & other Bacterias. Contact us @ +1 437 774 3831 Scientific overview Functional mechanisms Agricultural relevance Scientific evidence Sulphur-oxidizing bacteria are a functionally diverse group of microorganisms that convert elemental sulphur and other reduced inorganic sulphur compounds into more oxidized forms, including sulfate—the principal form absorbed by plant roots. These bacteria are not a single taxonomic group. They include autotrophic, heterotrophic and mixotrophic microorganisms with different environmental requirements and sulphur-oxidation pathways. Their activity forms part of the wider soil sulphur cycle, which also includes microbial immobilization and the mineralization of organically bound sulphur. In agricultural use, the term sulphur-solubilizing bacteria is frequently used; however, sulphur-oxidizing bacteria more accurately describes the principal biological process involved. Why is it important How Sulphur-Solubilizing Bacteria Convert Elemental Sulphur to Sulphate Sulphur-solubilizing bacteria—more accurately described as sulphur-oxidizing bacteria —convert elemental sulphur (S⁰) and reduced inorganic sulphur compounds, such as sulphide and thiosulphate, into oxidized forms that ultimately include sulphate (SO₄²⁻), the principal form absorbed by plant roots. Different bacterial groups use distinct enzyme-mediated pathways, including Sox-based and tetrathionate-intermediate pathways. In many chemolithotrophic sulphur oxidizers, reduced sulphur compounds act as electron donors, allowing the microorganisms to obtain energy during oxidation. The conversion of elemental sulphur to sulphate may also release protons, creating localized acidification around sulphur particles and active microbial zones. In alkaline or calcareous soils, these microscale pH changes may influence the availability of phosphorus and certain micronutrients. How it works Role of Sulphur-Oxidizing Bacteria in Crop Nutrition Sulphur is an essential plant macronutrient required for the formation of sulphur-containing amino acids, proteins, enzymes, coenzymes and glutathione. Plants absorb sulphur primarily as sulphate; therefore, elemental sulphur must first undergo biological oxidation before it becomes available for root uptake. Sulphur-solubilizing bacteria—more accurately described as sulphur-oxidizing bacteria —can contribute to the conversion of elemental sulphur into plant-available sulphate. Their agricultural relevance is particularly associated with sulphur-deficient soils and crop-production programs that use elemental sulphur amendments. In alkaline and calcareous soils, microbial sulphur oxidation may also create localized acidification around sulphur particles. Under appropriate conditions, this can influence phosphorus and micronutrient availability. Studies involving selected bacterial strains have reported improved sulphur uptake, root development, plant biomass or crop yield in pigeonpea, onion, maize, wheat and chickpea. However, responses vary with the bacterial strain, crop, soil properties, sulphur source, formulation and environmental conditions. Sulphur-oxidizing bacteria should therefore be considered tools for supporting soil sulphur cycling and nutrient management—not universal replacements for sulphur fertilizers. Content coming soon! < Microbial Species Sulphur Solubilizing Bacteria Sulphur-solubilizing bacteria convert elemental sulphur and other reduced sulphur compounds into plant-available sulphate, supporting soil sulphur cycling and crop nutrition under suitable conditions. Product Enquiry Sulphur Solubilizing Bacteria Our Products Explore our range of premium Sulphur Solubilizing Bacteria strains tailored to meet your agricultural needs, enhancing sulfur availability for optimal plant growth. Acidithiobacillus novellus Acidithiobacillus novellus sulfur oxidation in soil, improving nutrient availability for crops, particularly aiding in sulfur deficiency in soils, thereby boosting yield and plant health. View Species Acidithiobacillus thiooxidans Acidithiobacillus thiooxidans is a highly efficient sulfur-oxidizing bacterium that converts elemental sulfur and sulfide minerals into sulfate, enhancing soil nutrient availability and supporting crop growth. Its acidophilic nature allows it to thrive in extreme environments, making it a vital tool for bioremediation efforts, such as treating acid mine drainage and neutralizing soil contamination caused by heavy metals. Additionally, A. thiooxidans is widely used in bioleaching processes to extract valuable metals from low-grade ores, contributing to sustainable industrial and environmental practices. View Species Thiobacillus novellus Thiobacillus novellus, an effective inoculant that oxidizes sulfur, enhancing nutrient availability for plants while supporting bioremediation in contaminated soils. View Species Thiobacillus thiooxidans Acidithiobacillus thiooxidans is a potent sulfur-oxidizing bacterium that enhances soil sulfur availability, drives bioleaching of metals, and contributes to wastewater and sludge treatment, supporting sustainable agriculture and bioremediation. View Species 1 1 ... 1 ... 1 Resources Read all

Post Harvest Treatment - Lactic Cultures is a bio-preservation technique with the use of Lactic Acid Bacteria (LAB). < Microbial Species Post Harvest Treatment Post Harvest Treatments involve biological or chemical methods applied to harvested crops to prevent spoilage, extend shelf life, and maintain quality during storage and transportation. Product Enquiry What Why How FAQ What it is Post-harvest treatments refer to the various techniques and practices employed to preserve the quality, freshness, and shelf life of agricultural produce after harvesting. These treatments aim to minimize post-harvest losses, prevent spoilage, and maintain the nutritional value of fruits, vegetables, grains, and other perishable commodities during storage, transportation, and marketing. Why is it important Extended Shelf Life : Post-harvest treatments help prolong the shelf life of agricultural produce, allowing for longer storage periods and reducing the risk of spoilage and waste. Quality Preservation : Treatments such as washing, waxing, and packaging help maintain the appearance, texture, and flavor of fruits and vegetables, enhancing consumer appeal and marketability. Reduced Economic Losses : By minimizing post-harvest losses due to spoilage, rot, or physical damage, post-harvest treatments contribute to improved profitability and economic sustainability for growers, distributors, and retailers. How it works Types of Post-Harvest Treatments Cleaning and Sanitation : Washing and sanitizing fruits, vegetables, and packaging materials remove dirt, debris, and microbial contaminants, reducing the risk of decay and microbial spoilage. Waxing and Coating : Applying edible coatings or waxes to produce forms a protective barrier that reduces moisture loss, inhibits microbial growth, and enhances the appearance and shelf life of fruits and vegetables. Temperature Management : Cooling and refrigeration slow down physiological processes such as respiration and ripening, preserving the freshness and quality of perishable commodities during storage and transportation. Modified Atmosphere Packaging (MAP) : Packaging produce in controlled atmospheres with reduced oxygen and elevated carbon dioxide levels slows down ripening, inhibits microbial growth, and extends shelf life. Chemical Treatments : Application of fungicides, insecticides, or antimicrobial agents helps control post-harvest diseases, pests, and microbial spoilage, ensuring product quality and safety. Integrated Post-Harvest Management Effective post-harvest management involves the integration of multiple treatments and practices tailored to specific crops, storage conditions, and market requirements. By adopting a holistic approach to post-harvest handling, growers and stakeholders can maximize product quality, minimize losses, and meet consumer demand for fresh, safe, and nutritious food. FAQ Content coming soon! Post Harvest Treatment Our Products Explore our range of premium Post Harvest Treatment options tailored to meet your agricultural needs, extending shelf life and preserving quality from harvest to market. Lactic Cultures Lactic Cultures use Lactic Acid Bacteria (LAB) to preserve freshness post-harvest by producing antimicrobial compounds that inhibit harmful microorganisms. View Species 1 1 ... 1 ... 1 Resources Read all

Indogulf BioAg is a Manufacturer & Global Exporter of Iron Solubilising, Acidithiobacillus Ferrooxidans & other Bacterias. Contact us @ +1 437 774 3831 < Microbial Species Iron Solubilizing Bacteria Iron Solubilizing Bacteria convert insoluble forms of iron into highly soluble forms that plants can easily absorb, thereby preventing iron deficiency and significantly promoting healthy plant development. Product Enquiry What Why How FAQ What it is Iron solubilizing bacteria (ISB) are specialized microorganisms that enhance the availability of iron (Fe) in the soil. Iron is an essential micronutrient for plants, involved in various physiological processes such as photosynthesis, respiration, and nitrogen fixation. However, iron in many soils exists in insoluble forms that are not readily accessible to plants. ISB convert these insoluble forms into soluble iron that plants can absorb and utilize. Why is it important Iron deficiency can severely impact plant growth and productivity, particularly in calcareous or alkaline soils where iron availability is limited. The importance of iron solubilizing bacteria includes: Enhanced Nutrient Availability : ISB increase the availability of iron, promoting healthier and more vigorous plant growth. Improved Plant Health : Adequate iron levels support chlorophyll synthesis, enzyme activation, and overall plant metabolism. Sustainable Agriculture : Utilizing ISB can reduce the need for chemical iron fertilizers, promoting environmentally friendly farming practices. How it works Iron solubilizing bacteria employ several mechanisms to convert insoluble iron into soluble forms: Production of Organic Acids : ISB produce organic acids such as citric acid, gluconic acid, and siderophores. These acids lower the pH in the immediate vicinity of the bacteria, facilitating the dissolution of insoluble iron compounds (e.g., iron oxides) and releasing soluble iron ions (Fe^2+ and Fe^3+) into the soil solution. Reduction Processes : Some ISB can mediate reduction processes that convert insoluble ferric iron (Fe^3+) into more soluble ferrous iron (Fe^2+), which is more easily absorbed by plants. Chelation : ISB can produce siderophores, which are organic molecules that chelate iron ions, making them more soluble and available for plant uptake. By enhancing iron availability in the soil, iron solubilizing bacteria contribute to improved plant nutrition, health, and productivity, supporting sustainable agricultural practices. FAQ Content coming soon! Iron Solubilizing Bacteria Our Products Explore our range of premium Iron Solubilizing Bacteria strains tailored to meet your agricultural needs, ensuring efficient iron uptake for healthy plant development. Acidithiobacillus ferrooxidans Acidithiobacillus Ferrooxidans acts as a biofertilizer, enhancing nutrient availability by solubilizing soil iron, crucial for plants in iron-deficient soils. View Species 1 1 ... 1 ... 1 Resources Read all