Rhizosphere, the soil region nearest to plant root system, inhabits various microorganisms varying in their community structure and diversity, still remains largely unexploited despite so much of breakthroughs in isolation and characterization, but lacks in addressing citrus speci fi c rhizosphere properties. Exploiting microbial synergisms is one of the popular methods of substrate dynamics and associated changes in nutrient environment of rhizosphere. Soil microbial biomass dominates fungal mycelium accumulates and retains mineral nutrients, immobilizing as much as ~20% of the total soil N and P. The extraradical mycorrhizal mycelial (attains as much as 3% of root weight) networks are recognized as the hidden nutrient/ water-absorbing interfaces (glomalin, a soil-based glycoprotein secreted by AMF as a major seat of activity) in addition to safeguarding citrus against a number of other biotic and abiotic stresses. The microbial diversity existing within top 0-20-cm citrus rhizosphere soil was characterized and isolated by the promising microbes, namely, Bacillus polymyxa , Azoto bacter chroococcum , Bacillus mycoides , Pseudomonas fl uorescens , and Trichoderma harzianum . Pure culture of these microbes in value-added form ( Bacillus polymyxa 33-44 × 10 6 -10 7 cfu mL −1