Treatment and reuse of agro-industrial wastewaters for irrigation activities in drought prone regions
Developed by MIGAL - Galilee Research Institute
This technology generates new water resources for irrigation from the treatment of agro-industrial wastewaters through the usage of a holistic nature-sourced technology which combines a nanocomposite clarification-sedimentation system for the TSS removal, aerated bio-reactors for the COD and nutrient removal, and halophyte-zeolite wetlands for the sodium removal.
See more information about this level and the TRL and SRL levels.
The system’s main components have been individually tested, and an initial integration has been completed.
HZW is a green module integrated by natural ion-exchange resins (zeolites) and halophytes in an artificial wetland which is able to reduce the Sodium Adsorption Ratio (SAR) using exchange reactions and plant up take. HZW is part of a 3-stage modular system for the treatment of dairy farm wasterwaters which consists of a (patented) clay-polymer nanocomposite system for reducing TSS, a set of aerated cells for COD and nutrient removal (by up to 95%), and the HZW for the sodium removal.
Limitations/conditions under which this innovation does not work or is less effective
The break-even point and profitability of the nano-composites and aerated bacteriological cells have been achieved with full scale deployment of a commercial system at a winery. The technology is used also in produce packaging for removing colloids from wash water. This is still in active R&D as well with continued innovation in increasing the effectiveness of the components, hence profitability is expected more easily in the future. The phosphorous recycling and sodium removal have been validated in field tests but have not achieved break even since they were not employed as part of a commercial system. The system is currently designed to treat up to 20 m3/day. Once it reaches TRL 9 it should be able to treat up to 80 m3/day.
Added value
Highly robust to fluctuations in water quality; Applicable to various agroindustrial wastewater; proven implementation in dairy farm and winery; Use of natural and safe materials rated for use in drinking water; Flexible implementation options (modularity) to match the required water quality; Generation of value-added by-products; Supported by numerous scientific publications and field experience.
Treatment and reuse of agro-industrial wastewaters for irrigation activities in drought prone regions
Developed by MIGAL - Galilee Research Institute
This technology generates new water resources for irrigation from the treatment of agro-industrial wastewaters through the usage of a holistic nature-sourced technology which combines a nanocomposite clarification-sedimentation system for the TSS removal, aerated bio-reactors for the COD and nutrient removal, and halophyte-zeolite wetlands for the sodium removal.
The main components of the system have been tested separately, and an initial integration exercise has been conducted.
HZW is a green module integrated by natural ion-exchange resins (zeolites) and halophytes in an artificial wetland which is able to reduce the Sodium Adsorption Ratio (SAR) using exchange reactions and plant up take. HZW is part of a 3-stage modular system for the treatment of dairy farm wasterwaters which consists of a (patented) clay-polymer nanocomposite system for reducing TSS, a set of aerated cells for COD and nutrient removal (by up to 95%), and the HZW for the sodium removal.
Limitations/conditions under which this innovation does not work or is less effective
The break-even point and profitability of the nano-composites and aerated bacteriological cells have been achieved with full scale deployment of a commercial system at a winery. The technology is used also in produce packaging for removing colloids from wash water. This is still in active R&D as well with continued innovation in increasing the effectiveness of the components, hence profitability is expected more easily in the future. The phosphorous recycling and sodium removal have been validated in field tests but have not achieved break even since they were not employed as part of a commercial system. The system is currently designed to treat up to 20 m3/day. Once it reaches TRL 9 it should be able to treat up to 80 m3/day.
Added value
Highly robust to fluctuations in water quality; Applicable to various agroindustrial wastewater; proven implementation in dairy farm and winery; Use of natural and safe materials rated for use in drinking water; Flexible implementation options (modularity) to match the required water quality; Generation of value-added by-products; Supported by numerous scientific publications and field experience.
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