Linked from

The 25 pages that link to Biological nitrogen fixation, each with the reason it gives.

• Soil fertilityRelated: It supplies new nitrogen to soils, especially through associations involving legumes.

• Biogeochemical cycleRelated: It is a key biological route by which nitrogen enters food webs.

• FabaceaeRelated: Legume-based crop rotations can add biologically fixed nitrogen to agricultural soils.

• SymbiosisRelated: Symbiotic nitrogen fixation supports plant growth and agricultural fertility.

• SoybeanRelated: Soybean roots host bacteria that supply nitrogen to the plant through this process.

• AcaciaRelated: Root-associated bacteria enable many acacias to add usable nitrogen to nutrient-poor soils.

• Soil microbiologyRelated: Understanding this process helps manage legume–microbe partnerships and nitrogen inputs to soils.

• AlfalfaRelated: Alfalfa’s symbiosis can reduce reliance on synthetic nitrogen fertilizer in crop rotations.

• FrankiaRelated: Frankia is one of the bacterial groups used in biological nitrogen fixation.

• Tropical agricultureRelated: Legumes and their microbial partners can supply nitrogen where fertilizer is costly or scarce.

• Agricultural chemistryRelated: It adds reactive nitrogen to agricultural systems without industrial ammonia synthesis.

• Pigeon peaRelated: Pigeon pea gains usable nitrogen through symbiosis with soil bacteria.

• Phaseolus vulgarisRelated: Root-nodule bacteria can supply common bean with nitrogen and influence its value in crop rotations.

• Vicia fabaRelated: Root-associated bacteria supply nitrogen that can support faba bean growth.

• Acacia decurrensRelated: Nitrogen inputs from black wattle can alter nutrient-poor ecosystems where it invades.