Table 3.
Crop specific application of different mycorrhizal inoculants.
| Mycorrhizal fungi as biofertilizer | Applied in crops | Dosages | Outcomes | References | |||
|---|---|---|---|---|---|---|---|
| Glomeraceae, Claroideoglomeraceae, Paraglomeraceae | Oryza sativa | The application of the mycorrhizal fungiboosted the growth of rice | Wang et al., 2015 | ||||
| Arbuscular Mycorrhizalfungi (AMF) | Oryza sativa | AMF has the propensity to raise the harvest index and may quicken the transfer of N and P from shoots and/or soils to rice grains, especially in flooded situations. | Solaiman and Hirata, 1995 | ||||
| Acaulospora, Rhizoglomus, Entrophospora, Claroideoglomus, Funneliformis and Gigaspora | Oryza sativa | Utilizing AM inocula in the corresponding habitats boost plant production and growth. | Xavier Martins and Rodrigues, 2020 | ||||
|
Glomeromycotan Glomerales Rhizophagusirregularis |
Oryza sativa | Enhances the production of rice. The AMF interactions with rice plants indicate the function of strigolactone (SLs) in presymbiotic molecular communication, mitochondrial energy metabolism, spore germination, and hyphal branch stimulation. | Mitra et al., 2021b, 2021c, 2024 | ||||
| Funneliformismosseae, F. geosporus, Claroideoglomusclaroideum, Glomus microaggregatum, and Rhizophagus irregularis | Oryza sativa | The inoculum had a spore density of approximately 10 spores per gram of inoculum. | Plants with higher AMF colonization show higher stomatal conductance and chlorophyll fluorescence, especially under drought, indicating nutrient and hormone-driven pathways for drought tolerance in rice. | Chareesri et al., 2020 | |||
| AMF | Oryza sativa | The arbuscular mycorrhizal mutualism in rice fields enhances overall growth of rice plant. | Bao et al., 2022 | ||||
| Glomus intraradices | Maize | The AMF inoculum comprised 100 AMF infective propagules g−1 of product. The inoculum was applied at 25 kg ha−1. | Integrated nutrient management systems after the utilization of AMF inoculation. | Cozzolino et al., 2013 | |||
| AMF | Maize | Pomotes soil mycorrhizal activity and early mycorrhizal colonization of the next crop. | Njeru et al., 2014 | ||||
| Vesicular-arbuscular mycorrhizal (VAM) fungi | Maize | The level of maize mycorrhizal infection was connected with growth and yield of maize. | Boswell et al., 1998 | ||||
| AMF (Glomus mosseae, Glomus intraradices) |
Maize | Prior to seed sowing, 900 g of inoculum (25 spores per gram) had been incorporated 5 cm beneath the seeds in each row of 5 m length. | The application of AMF greatly boosted the output of dry matter and green matter, even with restricted watering. The application of AMF caused the leaf and stem ratios to rise while the ear ratios decreased. | Celebi et al., 2010 | |||
| Glomale fungi | Maize | Bestowed drought tolerance properties. | Jefwa et al., 2006 | ||||
| AMF | Maize | Maize growth using sterile substrate and non-sterile soil from native AMF communities promotes robust growth and blossoming, promoting local AMF usage in maize production farming techniques. | Alvarado-Herrejón et al., 2019 | ||||
| AMF | Wheat | AMF counteract the loss of biological fertility in soils, and provide a way to lessen the impact of biotic and abiotic stress. | Ganugi et al., 2019 | ||||
|
Glomus mosseae Glomus etunicatum |
Wheat | In native field soil about 3 spores per 100 g−1of air-dried soil has been added. | Mitigate the impacts of drought stress on wheat cultivated under field circumstances in semiarid regions. Also enhanced growth, yield, and nutrient uptake in wheat plants. | Al-Karaki et al., 2004 | |||
| AMF | Wheat | AMF inoculation improves wheat yields compared to conventional systems, potentially reducing fertilizer inputs after field validation. | Sharma et al., 2011 | ||||
| AMF | Wheat | Berruti et al., 2018 | |||||
| AMF (Glomus intraradices) |
Garlic Mustard | Foreign AM fungi and Alliariapetiolata can negatively impact local AM fungi, affecting their growth and reducing diversity in host roots. | Koch et al., 2011 | ||||
| AMF | Mustard | Improve plant heavy metal tolerance and accumulation through plant-microbe systems based on genotypes of plants and microsymbionts that are tolerant of Cd. | Belimov et al.,2020 | ||||
| AMF | Onion | A greater number of phylotypes were found in a few organic and conventional areas, including those connected to the genera Glomus, Archaeospora, and Paraglomus. | Galván et al., 2009 | ||||
| VAM (Gigaspora margarita, Glomus spp., Glomus fasciculatus Ger-. Demann, Glomus tenuis, F4, F11, FlO, NP9) |
Onion | Mycorrhizal fungi significantly stimulated onion growth and P uptake in sterilised and unsterilised soils, with Glomus spp. being the most efficient inoculants in Patumahoe and Horotiu soils. | Powell et al., 1982 | ||||
| Glomus etunicatum (AMF) | Sweet sorghum | To cultivate mycorrhizal plants, 100 g of an air-dried inoculum of Claroideoglomusetunicatium BEG168 was added to each container that held 900 g of soil. | Arbuscular mycorrhizal fungi enhances the overall growth of Sweet Sorghum cultivated in a molybdenum contaminated soil | Shi et al., 2020 | |||
| VAM | Sorghum | Enhances production | Raju et al.,1990 | ||||
| AMF | Sorghum | Mycorrhizal colonization has a detrimental influence on Striga germination, attachment, and emergence. | Lendzemo et al., 2007 | ||||
| AMF G. mosseae G. intraradices |
Mung bean | The mycorrhizal plants produced a larger seed output (161 g/m2), as well as higher levels of leaf phosphorus, leaf nitrogen, chlorophyll index, proline, total soluble carbohydrates content, relative water content, root length, root volume, root dry weight, and root/shoot weight ratio. | Habibzadeh et al., 2015 | ||||
| AMF | Mung bean | Interactions between mung bean, root-lesion nematode Pratylenchusthornei, beneficial symbionts arbuscular mycorrhizal fungi (AMF), and nitrogen-fixing Bradyrhizobium bacteria, enhance nutrition, growth, and seed yield. | Gough et al., 2021 | ||||
| AMF | Potatoes | Enhanced the potato production in soil with elevated phosphorus. | Douds et al., 2007 | ||||
| AMF | Soybean | AMF enhances the growth of soybean seeds. | Gabor et al., 1997 | ||||