Aqualatus (also known as Integrate ) is the world’s leading water saving technology with outstanding qualities to benefit soil water management, aggregation and nutrition.
Its formula, unique to Engage, makes it an essential technology for the areas of the world where water availability is an issue. Aqualatus's unique formula is proven in over 12 years of trials and commercial sales to reduce water loss to crops by eradicating surface run off, dramatically reducing surface evaporation and slowing the natural gravitational movement of water. The saving of water loss means that water application to crops can be reduced by up to 65%, whilst still maintaining optimal crop development, yield and quality.
65%
Saving on water
300+
Trials Data around the world
27
Countries using Aqualatus
12
Years of trials and
commercial sales
Aqualatus Trials
Here are a few examples of Trials Data and savings on water.
50% Saving
AMWAJ Holiday Destination saving of £277,400
The aim of the trial was to implement the use of Engage’s world leading water saving polymer liquid, Aqualatus, via irrigated water to landscape within two areas, one established parkland and the other a newly turfed area.
Both areas are within the newly developed AMWAJ Holiday destination set on Egypt’s North Coast.
The use of Aqualatus in this trial was to dramatically reduce the water requirement to grow healthy, vibrant plants.
55% Saving
on water for Melon grower in Spain
Almeria in Spain is the most intensive protected production area in the world and, as a result, water costs are high and growers are banned from using more than 10,000m³ of water per hectare. Despite this, growers need up to 12,000m³ per hectare when the temperature soars.
50% Saving
on water using Aqualatus for an Artichoke grower
The aim of the trials was to see if a reduction of water and fertiliser was possible under normal growing conditions through the winter period. Two locations were chosen, the first on the base of a valley alongside a dry riverbed and the other on a gradient (see right) where surface run off is more pronounced