Focusing on sustainable innovation to address potable water needs, NXTLVL Water gained full understanding of local island water issues including which communities are most in need of potable water solutions through direct talks with provincial governors and engineering offices and speaking engagements with LGUs. Aiming to raise awareness on sustainable tech solutions, the project also conducted on-the-ground outreach campaigns to show how tapping of renewable sources of water and energy are the key to delivering permanent solutions to the potable water crises and impacting community health outcomes.
The desalination solution developed by NXTLVL Water emphasizes decentralization and modularity at small (less than 100cmpd) scales, renewable and efficient use of energy, and localized supply chains enable communities to secure long-term consistent supply of high-quality potable water all year round. NXTLVL uses solar power to run our proprietary “Hydra” systems. Combined with unique energy-saving technology in its reverse osmosis systems, savings in power and other costs compared to traditional diesel-run desalination is at 85% or more. Since the production cost is lower than usual water providers, NXTLVL is able to price the product water for as low as Php 7.00 per 5 gallon jug, which gives the product competitive advantage over 80% of other marketed solutions.
Besides, the NXTLVL Water mission has been fully aligned with the COP26 goals aiming to provide tangible solutions in Philippines along two main factors:
1) Using renewable sources ONLY to solve the potable water crises on islands communities. NXTLVL systems only use abundant seawater as source water, avoiding completely the use of rapidly depleting groundwater (aquifers) and surface water (rivers, lakes, reservoirs). NXTLVL uses solar power to treat source water into high quality potable water without the need for fossil fuels at all. And because the systems are small and decentralized, NXTLVL is also able to avoid the large distribution and logistics carbon costs as well as environmental (sea ecology) concerns associated with other centralized water treatment solutions.
2) The creation of resilient decentralized networks of water infrastructure, a large departure from the traditional goals of large, costly and slow-to-build centralized water treatment infrastructures like mega-scale desalination plants and reservoir-tapping long distribution lines. The project focus is to produce and distribute potable water as close as possible to the end-consumer to eliminate large infrastructure costs and make water more accessible to smaller and remote communities. Having a decentralized model for water infrastructure also unlocks opportunities to push the limits of disaster resilience on a system standalone basis (ie. constructing each system to survive 250kph+ winds and flooding) as well as a network basis (ie. having multiple production hubs around clusters of islands provides natural insurance of water supply should one system experience breakage).
The company’s entire engineering and project management teams are focused on finding innovative ways to reduce the carbon footprint of the technology systems through feature design, and maximizing efficient system uptime to achieve complete substitution of water from our systems over water through traditional sources which include groundwater deep wells (harmful to aquifers), potable water importation which carries long logistics supply chains, and traditional desalination which is mostly energy inefficient and powered by diesel generators. Furthermore, the team focuses on sales of solar-powered only systems despite the market preference (often due to lack of technology education) for diesel generator-powered systems.