A simple climate recipe to reduce temperature and increase humidity.

Our greenhouse technology uses seawater to grow crops in the hottest and driest places on earth, designed and developed by Charlie Paton and the researchers at Aston University.

The world isn’t short of water, it’s just in the wrong place… and a bit too salty.

The innovation utilises the cooling and humidifying power of water vapour produced from evaporating salt water. Using modelling and simulation techniques developed in collaboration with our partners at Aston University, we are able to process local climate data to predict greenhouse performance and inform the design.

There is a broad agreement that something needs to be done to reduce atmospheric CO2 at scale – yet there is debate about what that something is. There is also a growing consensus that mother nature does it best – through photosynthesis. Carbon dioxide and water, converted by sunlight into carbohydrates, is stored in plant biomass and through their roots, sequestered in soils.

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There is a broad agreement that something needs to be done to reduce atmospheric CO2 at scale – yet there is debate about what that something is.

Read More

There is a broad agreement that something needs to be done to reduce atmospheric CO2 at scale – yet there is debate about what that something is.

A technology that reduces temperature and increases humidity.

The combined effect of reducing temperature and increasing humidity, together with providing a protected environment for crops, results in up to 90% reduction in evapotranspiration. This greatly reduces irrigation requirements, which can be provided by desalination, and improved growing conditions.

As a result operating costs are lower, yields increase, and farmers can benefit from year-round production of high-value horticultural produce.