A breakthrough system has been proposed by Hamad Bin Khalifa University in Qatar to address the challenges faced by desert agriculture through an innovative method. The system integrates water desalination, green hydrogen production, air conditioning, and electricity generation using bifacial photovoltaics. This system aims to support agricultural activities in remote desert locations where water and energy demands are high and infrastructure is lacking. The study published in the journal Desalination outlines a standalone, solar-powered freeze desalination and electrolysis system for producing freshwater and green hydrogen from brackish groundwater. The system is equipped with various energy recovery and storage solutions like cisterns, ice storage air conditioning, and metal hydride canisters with fuel cells to ensure efficient energy utilization and compensate for fluctuations in solar irradiation. Researchers have calculated the system's daily capacity to produce 52.8 m3 freshwater, 6.3 MWh air conditioning, 177 kg hydrogen, and 2.4 MWh electricity using a 10,785 m2 bifacial photovoltaics system. The system features 10,785 square meters of bifacial c-Si PV panels, with each module producing 600 W at 23.2% efficiency. It generates 1.5 MW of electricity, with 100 kW allocated for direct energy supply to farmers. The remaining power is utilized for the standalone system operations, including groundwater pumping and precooling. Researchers have emphasized the importance of bifacial photovoltaics in maximizing renewable energy utilization and power generation, highlighting the system's efficiency in capturing solar light from both faces. The integration of various components like freeze desalination, green hydrogen production, and energy storage aims to utilize energy efficiently and store it for times when solar energy is insufficient. The study underscores the role of solar irradiation in impacting the system's output rates and the necessity of innovative solutions for sustainable desert agriculture.