In a groundbreaking development, Saxon Capital Group has confirmed the efficacy of Energy Glass Solar™ Electrical Producing Panels for the passive powering of greenhouses dedicated to producing various crops, including produce, plants, and cannabis.
The Saxon team expressed satisfaction with the performance of the Energy Glass Solar panels, highlighting their ability to maintain optimal greenhouse conditions while seamlessly aligning with natural growth cycles. The panels not only supplied ample energy for greenhouse operations but did so in a manner harmonious with the cultivation needs of crops, particularly tomatoes.
The validation trial, conducted by Tecnova Centro Tecnologico-Spain, aimed to assess the agronomic effects of Energy Glass Solar photovoltaic panels during a tomato crop cultivated in a greenhouse. Two multi-span greenhouses, totaling 5,381.9 square feet each, were equipped with air recirculation, interior shading screens, and automated opening and closing systems for windows. The Energy Glass panels covered only 4.12% of the total greenhouse area, demonstrating their efficiency in a limited space.
Key Features of Energy Glass Solar Panels:
- Passive electricity generation, enabling the greenhouse to function entirely off the grid.
- EMF & EMR resistance, validated through a reduction in electromagnetic fields.
- Pollinator-friendly design, supporting bumblebees and other pollinating activities.
- Wind resistance up to 150 kph, demonstrated during the trial.
The Energy Glass Solar Panels were retrofitted onto the greenhouse roof, covering 4.12% of the total area. The installation included three inverters, two storage batteries, and an electrical control panel, making the greenhouse entirely self-sufficient in terms of electricity, without reliance on the external power grid.
Results of the Trial:
Optimal Light Penetration: The Energy Glass Solar panels, occupying less than 5% of the greenhouse roof, facilitated optimal natural light penetration, minimizing shadow zones.
Electromagnetic Field Measurements: Electromagnetic fields generated by the Energy Glass system were significantly lower than those from the standard electrical grid in the control greenhouse, ensuring no adverse impact on pollinating activities or plant growth.
Crop Growth Metrics: Various growth parameters, including plant height, basal diameter, internode distance, and leaf count, fell within normal ranges for a three-month tomato crop, indicating healthy and normal plant development.
Flowering and Fruiting Patterns: The number of flowers and fruits developed showed no significant difference across treatments, emphasizing that Energy Glass panels did not adversely affect critical stages of crop development.
Crop Productivity: Comparable fresh weight and harvestable fruits between treatments affirmed that the Energy Glass Solar panels had no detrimental effect on crop yield or quality.
This successful trial showcases the potential of Energy Glass Solar panels to revolutionize sustainable and efficient farming practices, providing a promising avenue for the future of greenhouse agriculture.