OUR RANGE OF WASTEWATER EVAPORATORS

At Condorchem Enviro Solutions, we design and manufacture wastewater evaporators. Our vacuum evaporation systems deliver excellent performance in:

• Minimizing the final sludge to be managed and cuting disposal cost
• Enabling water reuse and reduce freshwater intake
• Recovering valuable raw materials and by-products dissolved in the water

Vacuum evaporation with electrical energy (MVR)Vacuum evaporation with electrical energy (MVR)Vacuum evaporation with electrical energy (HP)Vacuum evaporation with electrical energy (HP)Multiple effect thermal evaporatorsMultiple effect thermal evaporators

CUSTOMIZED DESIGN

All our wastewater evaporators are customized to ensure optimal performance in the treatment of complex, variable, and high-risk wastewater streams, providing an efficient and reliable solution for even the most demanding industrial challenges.

CAPACITY RATES

Our wastewater evaporators can manage from 250 liters per day up to 250 m3 per day.

WASTEWATER COMPOSITION

Effective in the removal of brines, oils, PFAs, surfactants, metals and more.

AVAILABLE ENERGY

Our evaporators can operate with electrical and thermal energy to optimize OPEX and performance.

CONSTRUCTION MATERIALS

Available in stainless steel and corrosive resistant materials, such as super duplex.

OUR WASTEWATER EVAPORATORS MODELS

ELECTRICAL HEAT PUMP VACUUM EVAPORATORS

ENVIDEST LT VS ENVIDEST LT FC-2 DESALT LT VR DESALT LT DRY
Technology Heat pump (Freon R-513A) Heat pump (Freon R-513A) Heat pump (Freon R-513A) Heat pump (Freon R-513A)
Capacity (l/day) 250 to 1800 6720 to 52800 250 to 3500 250 to 1000
Electricity consumption per 1 m³ of distillate produced 170 kWh/m³ 110 kWh/m³ 220 kWh/m³ 270 kWh/m³
Thermal energy for evaporation NA NA NA NA
Thermal energy for condensation NA NA NA NA
Vacuum ≈ 60 mbar ≈ 125/70 mbar ≈ 60 mbar ≈ 60 mbar
Evaporation temperature ≈ 35 °C ≈ 50/40 ≈ 35 °C ≈ 35 °C
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ELECTRICAL MECHANICAL VAPOR RECOMPRESSION (MVR) EVAPORATORS

ENVIDEST MVR FF ENVIDEST MVR FC TF DESALT MVR FC
Technology Mechanical Vapor Recompression (MVR) / Falling Film (FF) / Forced Circulation (FC) Mechanical Vapor Recompression (MVR) / Forced Circulation (FC) Mechanical Vapor Recompression (MVR) / Forced Circulation (FC)
Capacity (l/day) 100 to 1800 1000 to 4000 600 to 2500
Electricity consumption per 1 m³ of distillate produced 35-60 kWh/m³ 35 kWh/m³ 64 kWh/m³
Thermal energy for evaporation NA NA Small amount of saturated steam
Thermal energy for condensation NA NA NA
Vacuum ≈ 700 mbar ≈ 750 mbar ≈ 700 mbar
Evaporation temperature ≈ 90 °C ≈ 90-94 mbar ≈ 90 °C
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THERMAL EVAPORATORS

ENVIDEST DPM-1-2-3 ENVIDEST MFE-1-2-3 DESALT MFE-1
Technology Evaporation with thermal energy Evaporation with thermal energy
Forced Circulation (FC)
Evaporation with thermal energy
Forced Circulation (FC)
Capacity (l/day) 4000 to 30000 20000 to 200000 20000 to 100000
Electricity consumption per 1 m³ of distillate produced NA NA NA
Thermal energy for evaporation Saturated steam or hot water Saturated steam or hot water Saturated steam or hot water
Thermal energy for condensation Cooling water Cooling water Cooling water
Vacuum ≈ 310/200/125 mbar ≈ 310/200/125 mbar ≈ 200 mbar
Evaporation temperature ≈ 70/60/50 °C ≈ 70/60/50 °C ≈ 60 °C
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DESALT VR DESALT DRY DESALT VTR
Technology Evaporation with thermal energy Evaporation with thermal energy Evaporation with thermal energy
Capacity (l/day) 2000 to 20000 500 to 3000 10000
Electricity consumption per 1 m³ of distillate produced NA NA NA
Thermal energy for evaporation Saturated steam or hot water Saturated steam or hot water Saturated steam
Thermal energy for condensation Cooling water Cooling water Cooling water
Vacuum ≈ 200 mbar ≈ 200 mbar NA
Evaporation temperature ≈ 60 °C ≈ 60 °C ≈ 100 °C (Patm)
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ZERO LIQUID DISCHARGE SOLUTION

Wastewater evaporators are a key technology in achieving Zero Liquid Discharge (ZLD) because they concentrate and separate contaminants
from water through thermal processes, leaving only clean distillate and solid residues. By separating liquid effluent, they enable complete water
recovery and ensure full environmental compliance, making them essential for sustainable industrial wastewater management.