A complete water plant in a container footprint. It treats, recovers, runs itself, and signs a record for every litre.
Heat is the energy, not the source. Pleia is configured per site around whatever water exists, and the physics that can be recovered from it.
The site's own grey and process water, treated for reuse so less is drawn from supply.
Local ground or surface water, upgraded through heat-driven membrane distillation.
Sorbent capture of atmospheric moisture where climate allows, released with low-grade heat.
The energy input: reject heat from generators and equipment drives the recovery train instead of new load.
Standardized docking interfaces join units into one hydraulic and data system. One becomes two in an afternoon.
Reinforced corner castings stack rows into a plant, serviced from a walkway, run by one remote operator.
Both units make the same standardized output. What changes is how long they can go without a person. Pleia 40 spends its extra volume on reserves and redundancy, not on more water.
Engineering targets for suitable source waters, confirmed by mass balance and field data.
Identical Pleias that specialize when useful and cooperate as one water system. Pleia OS moves production between units as demand changes: two units might make 25,000 L of potable and 25,000 L of irrigation water today, and 50,000 L of potable in a drought (illustrative).
The units share the work, not the chemicals. Pleia OS shifts which unit makes which water based on each unit's reserves, and each unit carries a full horizon of its own reserves, so nobody has to move anything between visits. No extra hardware.
The site shares one intake and pre-treatment, with separate potable and non-potable storage. Each unit runs on its own, so one unit down does not stop the site. Grow from 2 units to 50.
Buy two identical Pleias. Get one water system that reshapes itself around what your community needs.
The production line is a Pleione-designed body on a certified ISO frame, so every unit moves by ship, rail or truck like any container, and arrives looking like Pleia.
Standardized for global transport. Designed as Pleia.
Every Pleia shares the same core. What changes from site to site is the media in one standard bay, and the capability modules added for harder water or a different job.
The part that never changes: hydraulics, power, controls, sensing, safety, dosing, cleaning and Pleia OS.
One standard vessel with swappable, identified media, matched to what is in the water.
Larger add-ons for different processes. Seawater is a module, not the core.
Pleia 01 ships as one validated configuration first: turbid river to potable, with a provision for a second non-potable output. Media options and capability modules follow field validation.
Later, Pleia Compatible: a module standard other builders can design to.
Printed enclosures, manifolds and thermal lattice cores. Complex geometries with no tooling capital, so the design can iterate weekly.
Proven wet-side components in a standardized frame. Units arrive configured and connect on site in days.
Replacement parts printed near the site instead of flown in. Fixable by local hands with common tools.
We publish performance when it is measured on a Pleia unit, and not before. That discipline is the same one that signs the water record.
We are selecting pilot hosts and deployment partners now. Measurement-first, low-risk, and verifiable from day one.
