Biofertilizers containing plant growth promoting rhizobacteria enhance nutrient uptake and improve the growth and yield of chickpea plants in an arid environment.

Integrated nutrient management is anticipated as an environmentally friendly method toward sustainable agricultural development and optimum crop production with reduced environmental impacts. In the present study, the pastel sulfur (SPA), powdered sulfur (SPO), sulfur-oxidizing bacteria (SOB), free-living nitrogen-fixing bacteria (NFB), phosphate solubilizing bacteria (PSB), and potassium solubilizing bacteria (KSB) were applied. The experimental treatments included (1) SPA, (2) SPO, (3) SOB, (4) SPA + SOB, (5) SPO + SOB, (6) SPA + SOB + NFB + PSB + KSB, (7) SPO + SOB + NFB + PSB + KSB, (8) SOB + NFB + PSB + KSB, (9) NFB + PSB + KSB, and (10) control.

ABA and BAP improve the accumulation of carbohydrates and alter carbon allocation in potato plants at elevated CO.

Elevated CO interactions with other factors affects the plant performance. Regarding the differences between cultivars in response to CO concentrations, identifying the cultivars that better respond to such conditions would maximize their potential benefits. Increasing the ability of plants to benefit more from elevated CO levels alleviates the adverse effects of photoassimilate accumulation on photosynthesis and increases the productivity of plants.

Variations in assimilation rate, photoassimilate translocation, and cellular fine structure of potato cultivars (Solanum Tuberosum L.) exposed to elevated CO.

Rising atmospheric CO concentrations are expected to impact the productivity of plants. Cultivars demonstrate different responses to CO levels, hence, screening and recognizing the cultivars with a higher capacity for translocation of photoassimilates would certainly be beneficiary. To investigate the interactive impact of enhancing CO on physiology, cellular fine structure and photoassimilate translocation of micro-propagated potato plantlets, plantlets (cvs.