Surface tension, rheology and hydrophobicity of rhizodeposits and seed mucilage influence soil water retention and hysteresis - Naveed, M.; Ahmed, M. A.; Benard, P.; Brown, L. K.; George, T. S.; Bengough, A. G.; Roose, T.; Koebernick, N.; Hallett, P. D. (Plant and soil, 2019)
Keywords: Analysis; Barley; Biomedical and Life Sciences; Contact angle; Corn; Dialysis; Drying; Ecology; Exudates; Hydraulic properties; Hydrogels; Hydrophobicity; Hydroponics; Hysteresis; Hysteresis (Physics); Influence; Life Sciences; Loam; Loam soils; Moisture content; Mucilage; mucilages; Osmotic potential; osmotic pressure; Plant Physiology; Plant Sciences; Polyethylene glycol; Properties; Regular; REGULAR ARTICLE; Retention; Rheological properties; Rheology; rheometers; Rhizosphere; root exudates; roots; Salvia columbariae; Sandy loam; sandy loam soils; Sandy soils; Sessile drop method; Soil moisture; Soil properties; soil sampling; Soil Science & Conservation; Soil treatment; Soil water; soil water retention; Surface tension; surfactants; Viscosity; Wilting; Wilting point; Viscosity; Soil water retention; Root exudate; Seed exudate; Surface tension; Contact angle; Hysteresis