Technology brief
What this platform addresses
separates solid particles from liquids — brine, wet soils, industrial wastewater, sludge — using Phase Change Crystal Separation Technology (PCCST).
Waste Management
separates solid particles from liquids — brine, wet soils, industrial wastewater, sludge — using Phase Change Crystal Separation Technology (PCCST).
Technology brief
separates solid particles from liquids — brine, wet soils, industrial wastewater, sludge — using Phase Change Crystal Separation Technology (PCCST).
The challenge
Primary use cases: isolation of heavy-metal salts from mine water; recovery of caustic soda from red mud (aluminum byproduct); drying of contaminated wet soils; sludge/tailings dewatering.
Industries and users: mining, metallurgy/alumina, industrial wastewater operators.
Scale: modular, scalable; integrates as the crystallization stage of larger ARBOK ZWD trains.
ARBOK solution
ARBOK-CRYSTALLIZER separates solid particles from liquids — brine, wet soils, industrial wastewater, sludge — using Phase Change Crystal Separation Technology (PCCST). Where conventional crystallizers consume tens to hundreds of kWh per ton, it achieves effective separation at just 3–5 kWh/ton (up to 100–150× energy savings), with no chemicals, sorbents, membranes, or coagulants. This makes drying and solid recovery economically viable in cases that were previously unfeasible.
PCCST drives solid–liquid separation through a phase-change crystallization step that precipitates and separates dissolved/suspended solids at very low specific energy, without chemical additives, sorbents, membranes, or coagulants. Designed as a consumable-free, modular separation/drying stage.
Limitations: R&D maturity; performance varies with feed chemistry; solids offtake/handling.
Market and application
Crystallization/dewatering is a cost and energy bottleneck across mining, alumina (red mud), and industrial wastewater. A 100–150× energy reduction opens large markets where conventional crystallizers are too costly to run.
OPEX driven by 3–5 kWh/ton energy (vs tens–hundreds conventional); no consumables. CAPEX modular/project-dependent; value comes from low-energy recovery of salts/metals and avoided sludge disposal. (Site economics to be modelled.)
Use cases
Primary use cases: isolation of heavy-metal salts from mine water; recovery of caustic soda from red mud (aluminum byproduct); drying of contaminated wet soils; sludge/tailings dewatering.
Industries and users: mining, metallurgy/alumina, industrial wastewater operators.
Scale: modular, scalable; integrates as the crystallization stage of larger ARBOK ZWD trains.
Steps: feed characterization → module sizing → integration as crystallization/drying stage → commissioning. Continuous, automated, minimal staffing.
Plug-in crystallization stage for ARBOK ZWD trains (PURI, CHLORIDE, RED MUD recovery); SCADA/PLC ready; modular cascade.
ARBOK-CRYSTALLIZER separates solid particles from liquids — brine, wet soils, industrial wastewater, sludge — using Phase Change Crystal Separation Technology (PCCST). Where conventional crystallizers consume tens to hundreds of kWh per ton, it achieves effective separation at just 3–5 kWh/ton (up to 100–150× energy savings), with no chemicals, sorbents, membranes, or coagulants. This makes drying and solid recovery economically viable in cases that were previously unfeasible.
Primary use cases: isolation of heavy-metal salts from mine water; recovery of caustic soda from red mud (aluminum byproduct); drying of contaminated wet soils; sludge/tailings dewatering.
Industries and users: mining, metallurgy/alumina, industrial wastewater operators.
Scale: modular, scalable; integrates as the crystallization stage of larger ARBOK ZWD trains.
PCCST drives solid–liquid separation through a phase-change crystallization step that precipitates and separates dissolved/suspended solids at very low specific energy, without chemical additives, sorbents, membranes, or coagulants. Designed as a consumable-free, modular separation/drying stage.
Limitations: R&D maturity; performance varies with feed chemistry; solids offtake/handling.
Energy: 3–5 kWh/ton (vs tens–hundreds kWh/ton conventional → 100–150× savings).
Consumables: none (no filters, membranes, chemicals, additives).
Feeds: brine, tailings, red mud, wastewater sludge, wet soils. Modular and scalable.
Phase-change crystallization unit; solids extraction/drying; condensate/liquid recovery; control system. Modular; designed to integrate with ARBOK PURI and ARBOK nuclear/mine-water systems as the crystallization stage.
Technical: 100–150× lower energy than conventional crystallizers; consumable-free; handles difficult sludges.
Economic: drastically lower OPEX makes previously unfeasible drying/recovery profitable.
Environmental: no chemicals; recovers metals/salts instead of landfilling sludge.
Strategic: enables ZWD across mining, metallurgy, and industrial wastewater.
Plug-in crystallization stage for ARBOK ZWD trains (PURI, CHLORIDE, RED MUD recovery); SCADA/PLC ready; modular cascade.
Steps: feed characterization → module sizing → integration as crystallization/drying stage → commissioning. Continuous, automated, minimal staffing.
TRL 9 (confirmed by Michael). Industrially proven separation/crystallization on real feeds at 3–5 kWh/ton.
Crystallization/dewatering is a cost and energy bottleneck across mining, alumina (red mud), and industrial wastewater. A 100–150× energy reduction opens large markets where conventional crystallizers are too costly to run.
OPEX driven by 3–5 kWh/ton energy (vs tens–hundreds conventional); no consumables. CAPEX modular/project-dependent; value comes from low-energy recovery of salts/metals and avoided sludge disposal. (Site economics to be modelled.)
R&D maturity — needs pilot/field validation; performance dependence on feed chemistry; solids offtake; scale-up engineering.
ARBOK PURI · ARBOK RED MUD · ARBOK-CHLORIDE · ARBOK-VC (Vacuum Cracking)
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Partnership pathway