Upwelling carbon capture and solid transport are three innovation in progress technologies that extend and complement FloNergia’s proven FloMov™ platform.
Together they represent new applications and growth pathways that build on FloNergia’s core capabilities and support broader sustainability and performance goals across food and environmental systems.

Elevated CO₂ levels in greenhouses known as carbon fertilization are a common practice used to enhance plant photosynthesis. In this approach natural gas boilers referred to as CO₂ enrichment systems are typically used to generate higher CO₂ concentrations to increase crop production. FloNergia’s mass transfer technology is being leveraged to develop a cost effective Carbon Capture and Re use CCR system that supports sustainable food production while addressing climate change mitigation in the agriculture sector.
Efficient operation of the CCR reactor is achieved by optimizing the solubility rate of CO₂ in water through detailed simulations of multiphase heat and mass transfer processes utilizing FloMov™ technology.


FloNergia’s Upwelling Technology is designed to improve the resilience and productivity of net-pen aquaculture under increasing climate pressures. By lifting cooler, oxygen-rich water from deeper layers to the surface, the system stabilizes temperature and water quality, reducing fish stress and improving feeding performance and overall yields.
FloNergia’s FloMov™ solution integrated in an Upwelling system reduces energy consumption while providing effective water circulation, enhanced aeration, and improved nutrient mixing. The result is quieter operation, lower maintenance and capital costs, and more reliable performance.


FloNergia’s technology can also be configured as a gentle transport device for conveying solids, irregularly shaped materials, soft biological matter, and even live organisms such as fish, algae, or worms within water-based systems. The technology operates using a specialized FloMov™ pump, creating a low-shear transport environment that minimizes physical stress and material damage.
This approach enables the reliable movement of sensitive materials while reducing clogging risks and maintenance requirements, supporting safe handling in bioprocessing and environmental applications.
