Mission
To explore and develop water-treatment systems that combine scientific clarity, resource efficiency and practical engineering.
NURIT / ABOUTWATER & ENGINEERING
The NURIT story
Engineering a more
intelligent relationship
with water.
We are building a Clay model, the we will print a 3D model and you will find us factories in India 🇮🇳 and call centers worldwide. The patent belongs to Shimon the CEO.
↓Who we are
A development platform for ambitious water technologies.
NURIT works at the intersection of water treatment, applied physics, mechanical design and environmental engineering. Its purpose is to investigate systems that can treat water while reducing avoidable chemical dependency, improving how energy is applied and recovering useful value from process outputs.
Rather than treating desalination as a single isolated operation, NURIT considers the complete system: incoming seawater, separation behaviour, thermal requirements, water recovery, mineral streams, energy use, controls and the path toward practical implementation.
The work is research-led but implementation-focused. Every concept must ultimately move through calculation, component design, prototyping, measurement and real-world validation.
“A water system should be designed as a connected resource ecosystem—not simply as a machine that separates water from waste.”
Our purpose
One direction.
Three commitments.
Clear intent keeps ambitious technology work grounded in useful questions, measurable learning and responsible decisions.
Vision
A future in which clean water, useful minerals and available energy are considered together as parts of one integrated process.
Commitment
To move carefully from concept to evidence, testing each technical assumption before progressing toward larger-scale implementation.
The challenge
Desalination is essential. Its systems can still be improved.
Conventional desalination has made large-scale freshwater production possible, but many systems can involve significant energy demand, extensive pretreatment, chemical consumables and concentrated waste streams.
NURIT begins with a different question:What if separation could be designed around the material’s own measurable physical properties?
This question leads to a proposed system that investigates direct electric and magnetic separation, lower-temperature evaporation, focused solar thermal input and the recovery of useful outputs.
The objective is not to promise immediate replacement of established methods. It is to create and validate an alternative engineering pathway through disciplined research and staged development.
Energy requirementsChemical dependencyConcentrated waste streamsResource recovery
Our approach
Start with intrinsic properties. Build toward a complete system.
NURIT’s proposed process is organised into two connected stages, each requiring evidence before the next.
I
Stage I / Direct physical separation
Separate through measurable response.
Electrophoretic behaviour may support separation through differences in surface charge, while magnetophoretic behaviour may support separation through differences in magnetic susceptibility. The concept proposes arranging these forces across independent physical axes to create a controlled separation space for continuous-flow treatment.
- Investigate electric and magnetic material responses
- Reduce dependence on functionalised separation media
- Design continuous-flow geometries and validate them through controlled experiments
II
Stage II / Sub-vacuum thermal processing
Apply energy where phase change happens.
At sub-atmospheric pressure, water boils at a lower temperature. This may allow available thermal energy or focused solar input to support phase change with reduced high-temperature heating requirements. The proposed system also investigates condensation geometry and water recovery.
- Lower the required boiling temperature
- Apply thermal energy at the liquid-vapour interface
- Investigate focused solar collection and low-energy process loops
The connected system
Water, energy and minerals belong in the same conversation.
NURIT’s long-term system vision extends beyond the production of freshwater. It considers whether process streams can be organised so that each stage supports another.
Direct separation could reduce scaling and fouling before thermal processing. Thermal energy could support evaporation. Condensation could recover water. Mineral-rich streams could be evaluated for useful recovery instead of being viewed only as waste.
Treated water after appropriate validationRecoverable commercial mineralsOpportunities for energy integrationReduced unnecessary dischargeBetter information for process control
These are development objectives. Final performance, water quality, energy use and recovery rates must be established through prototype and pilot testing.
What guides the work
Five principles behind every development decision.
Physics before assumptions
System decisions should begin with measurable material behaviour, energy balances and physical constraints.
Evidence before scale
Each development stage should produce the data required to justify the next investment in size and complexity.
Integration over isolation
Separation, thermal processing, condensation, minerals, controls and energy should be designed as connected parts of one system.
Resource value over waste
Process outputs should be evaluated for potential reuse or recovery before they are classified as waste.
Practical engineering
A strong concept must eventually become a system that can be built, controlled, maintained and operated safely.
Development pathway
A disciplined journey from feasibility to scale.
The timeline is a proposed sequence. Evidence at each stage determines whether and how the work proceeds.
FEASIBILITY STUDY
Validate scientific assumptions, calculate expected forces and energy requirements, identify technical risks and define measurable success criteria.
EXPERIMENTAL PROTOTYPE
Build controlled laboratory systems to evaluate separation behaviour, pressure conditions, thermal input, condensation and material compatibility.
INTEGRATED PROTOTYPE
Connect the strongest individual components into a complete working process and measure interactions between stages.
PILOT PLANT
Test realistic water conditions, longer operating periods, process controls and practical maintenance requirements.
COMMERCIAL PATHWAY
Evaluate manufacturing, automation, regulatory requirements, cost, safety, capacity and deployment models.
Capabilities
The disciplines behind the system.
Water System Architecture
Connecting separation, thermal processing, condensation, recovery and controls into one coherent system.
Applied Separation Science
Exploring electric, magnetic and material responses as possible tools for direct separation.
Thermal Process Development
Investigating reduced-pressure evaporation, solar thermal input and efficient condensation.
Mechanical Prototyping
Turning early concepts into components, assemblies and testable physical systems.
Modelling and Control
Using calculations and process data to define operating conditions and improve repeatability.
Scale-Up Planning
Preparing technical concepts for prototype, pilot and future commercial evaluation.
Connected by collaboration
Engineering progress is a shared effort.
NURIT brings together the research, engineering and commercial perspectives required to move complex water technologies from concept toward practical validation.
Water technology development
NURIT focuses on the scientific and engineering work needed to investigate new desalination, separation and resource-recovery systems.
ES VENTURE + Aquatech
NURIT is presented as part of the wider innovation ecosystem of ES VENTURE and Aquatech.
ARC Technologies
The NURIT Water Desalination System is presented by ARC Technologies.
Capabilities brought into the conversation
NURIT is part of ES VENTURE and Aquatech. The NURIT Water Desalination System is presented by ARC Technologies.
Work with NURIT
Progress begins with the right technical conversation.
NURIT welcomes conversations with organisations and professionals working across water technology, desalination, environmental engineering, applied research, manufacturing and sustainable infrastructure.
- Scientific and laboratory research
- Water-quality analysis
- Prototype engineering
- Materials and component development
- Pilot-site opportunities
- Process automation and control
- Manufacturing and scale-up
- Investment and commercial strategy
Begin a conversation
Interested in the future of water systems?
Whether you are exploring a technical partnership, research opportunity or engineering challenge, NURIT is ready to begin the conversation.