Genesis Systems LLC has secured a major milestone in water conservation with a newly patented system for atmospheric water generation. This innovation focuses on the patent titled Atmospheric water generation systems and methods utilizing membrane-based water extraction. The patent describes an advanced extraction system designed to combat specific water scarcity challenges that often lead to resource depletion.

Overcoming Water Scarcity Challenges

Patent Title: Atmospheric water generation systems and methods utilizing membrane-based water extraction

Company Name: Genesis Systems LLC

Patent Abstract: An atmospheric water generation system absorbs water from an atmospheric air stream into a desiccant flowing along a flow path of a closed desiccant circulation loop. To ensure that the desiccant remains within the closed desiccant circulation loop, the atmospheric water generation system encompasses a membrane-based water extraction device that the desiccant flows through. The desiccant flows through the membrane-based water extraction device on a first side of a membrane, and the membrane separates the desiccant from a water-collection flow. Water absorbed into the desiccant passes from the desiccant, through the porous membrane, and into the water-collection flow, at least in part due to differences in temperature and/or pressure characteristics of the water flow and the desiccant flow. Water collected within the water-collection flow is directed to a storage tank for usage.

Swanson Reed Patent of the Month

Genesis Systems LLC earned the prestigious Swanson Reed patent of the month award for May 2026 due to its groundbreaking approach to sustainable water sourcing within the water conservation and renewable power generation industry. The innovative system addresses a long-standing challenge of extracting clean water from low-humidity environments efficiently. By integrating a closed desiccant circulation loop with membrane-based extraction, the company has introduced an unparalleled level of resource recovery that redefines industry standards.

This invention stands out in the environmental technology sector because it solves desiccant loss and energy inefficiency issues that previously limited atmospheric water generators. The integration of a porous membrane that separates the desiccant from the water-collection flow ensures that the chemical desiccant remains safely contained while maximizing liquid transfer. This engineering feat enhances mechanical reliability and output purity, making it a highly remarkable advancement that sets a new benchmark for scalable water security technologies.

Swanson Reed recognizes this patent because it reflects significant technical progress and exceptional ecological utility. The design does not merely rely on traditional condensation methods but transforms water harvesting through sophisticated thermal and pressure differentials across advanced membranes. This successful integration of thermodynamics, material science, and fluid engineering makes it a highly deserving recipient of the patent of the month distinction.

USA R&D Tax Credit Compliance

To qualify for the Research and Development tax credit in the United States, an invention must satisfy a four-part test. First, the project must involve a permitted purpose, meaning it aims to create a new or improved product or process regarding functionality, performance, reliability, or quality. Second, it must eliminate technical uncertainty, where the business faces unknowns regarding the capability, methodology, or final design of the system. Third, it requires a process of experimentation, involving systematic evaluation of alternatives, testing, or modeling. Fourth, the research must be technological in nature, relying on principles of physical sciences, biological sciences, engineering, or computer science.

Practical Applications Meeting R&D Tax Credit Rules

First Application: Designing and optimizing the closed desiccant circulation loop requires extensive engineering to maintain optimal flow rates under varying atmospheric conditions. Engineers must evaluate different desiccant concentrations and fluid dynamics to ensure continuous moisture absorption without system degradation. This process of experimenting with chemical stability and fluid mechanics satisfies the technological nature and experimentation requirements.

Second Application: Developing the membrane-based water extraction device involves resolving significant technical uncertainty regarding mass transfer efficiency. The development team must prototype multiple porous membrane configurations to evaluate how temperature and pressure differentials affect the rate of water passing into the collection flow. Testing various membrane materials and thermal characteristics to maximize water yield qualifies as a process of experimentation.

Third Application: Engineering the integration of the water-collection flow with the storage tank system requires developing new control systems to prevent desiccant contamination. Technical teams must design and validate automated monitoring sensors that detect any membrane breaches or pressure imbalances instantly. This work addresses complex mechanical uncertainties to ensure product purity and system safety, constituting a qualified research activity.