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An efficient consortium NEER-PHOS was designed using high phosphate solubilizing microbes isolated from lab-scale bioreactor operated under phosphate (Pi) rich, limiting, and stress conditions to meet the current agronomy demands in an eco-friendly manner. Individual microbes were screened for higher phosphate solubilizing potential with additional growth-promoting abilities like nitrogen fixation, potassium solubilization, auxin, and HCN production. The best-selected multipotent microbes were used to design the consortium. The selected microbes T166, X225, X303, X308, X298, and PVN-1 were identified as  Proteus mirabilis ,  Pseudomonas  sp.,  Pseudomonas aeruginosa ,  Chryseobacterium  sp., and  Klebsiella pneumoniae , respectively and results into more than 250 mg/L released PO 43  in liquid medium. A total of 63 consortium combinations were assayed, and the best solubilizing combination, number 58 (557.8 mg/L-PO 43− ), was selected for the pot experiment. The performance of the designed consortium was studied on  Vigna radiata ,  Cicer arietinum , and  Triticum aestivum . The overall analyzed growth parameters suggest that the designed consortium enhances growth significantly ( p  &lt; 0.05) and reduces fertilizers by 50–100% in  V. radiata  and  C. arietinum . Hence, the designed consortium NEER-PHOS can reduce the chemical fertilizer application and simultaneously improve plant productivity.

Designing an Efficient Consortium for Improved Crop Productivity using Phosphate Stress Adapted Bacteria with Multiple Growth-Promoting Attributes