Nano-sorbent materials
Exploring MOFs, hybrid hydrogels, and related materials that can capture water vapour from air.
Atmospheric water / nanomaterials
Making air a
source of water.
Nerith is a research-led exploration of atmospheric water harvesting, advanced sorbent materials, and modular systems for water independence in difficult climates.
- Origin
- 2007
- Lab phase
- 2021
- Focus
- Water from air
01 / The premise
Move atmospheric water research toward useful systems.
Nerith began with a direct observation: humid air and water scarcity can exist in the same place. The project asks how advanced water-absorbing materials can be engineered beyond laboratory samples and into practical infrastructure.
The work connects material science with thermal cycles, modular hardware, control systems, storage, buildings, agriculture, and the realities of maintenance in demanding environments.
Atmospheric vapour Useful water systems
02 / System
One water cycle.
Four engineering stages.
The material is only one part of the system. Airflow, release energy, water handling, and control must work together.
- 01
Air intake
Move ambient air across the active material with controlled flow.
- 02
Vapour capture
Bind water molecules within a nano-sorbent or hydrogel structure.
- 03
Controlled release
Apply a managed thermal cycle to release and condense captured water.
- 04
Store & manage
Monitor water quality, storage, delivery, and operating efficiency.
03 / Research directions
From material behaviour to field operation.
Three connected layers define the current Nerith research direction.
Modular water systems
Translating material behaviour into maintainable units for buildings, agriculture, and remote environments.
Resource intelligence
Coordinating capture, release, storage, and energy use around local climate and operating conditions.
04 / Journey
An idea tested over time.
The project moved from observation to technical investigation and documented laboratory work.
Open the 2022 lab report- 2007
The first question
A trip to a humid, water-scarce region established the original problem.
- 2021
Into the laboratory
The concept moved into nanomaterial synthesis and practical testing.
- 2022
Results documented
Laboratory findings, analytical reports, and project documents were archived.
- Now
System development
The focus continues toward integrated, modular, and testable water systems.
05 / Application visions
Different scales.
The same water question.
These images communicate possible deployment directions. They are concept visualizations, not photographs of completed products.
Concept visualization / 01
Urban buildings
Distributed atmospheric water systems integrated close to the point of use.
Concept visualization / 02
Agriculture
Modular networks envisioned for greenhouses and water-constrained growing environments.
Concept visualization / 03
Aerial platforms
A long-horizon concept for operating capture systems at useful atmospheric conditions.
06 / Evidence archive
Read the work behind the vision.
Project documents, laboratory material, and raw analytical reporting remain directly accessible.
01 Whitepaper Nerith WhitepaperProject direction, system thinking, and proposed applications. 02 Technical paper Atmospheric Water Harvesting PlatformTechnical platform document focused on atmospheric water capture. 03 Laboratory Laboratory Report 2022Research notes and findings from the laboratory phase. 04 Raw data Trace Element AnalysisFull instrument report and raw analytical data. 05 Protocol Laboratory Setup & TestingDocumentation of the laboratory and testing approach. 06 Project file Nerith ProjectA broader project presentation and development vision.
07 / Document integrity
Independent verification remains available.
Timestamp records and detached signatures help verify the history and authenticity of published project files.
JSON recordBlockchain timestampsOpen the published timestamp archive.
PGP / GPGDetached signaturesView downloadable signature files.
08 / Continue