Authorized and anonymized project references where each entry documents the feed characterization (TDS, COD, dominant salts), nameplate evaporation duty, configured process route (energy reuse × evaporator type × crystallizer type), and the specific process challenge that drove selection — not a gallery of nameplates. Where client confidentiality prevents full disclosure, only the process envelope and configuration family are published.
170+
Reference projects with documented feed, duty and process route
10
Industries served — chemical, battery, food, pharma and more
6+
Process route families: MVR, TVR, multi-effect, forced circulation, DTB, Oslo
MVR climbing-film low-temperature evaporation for gelatin and ejiao concentration: 70C reference case, full MVR vs double-effect cost comparison, 70% evaporation cost saving.
Continuous MVR evaporation and crystallization upgrades PMIDA (N-phosphonomethyl iminodiacetic acid) production for the IDA glyphosate route: over 80% energy savings, stable crystal quality and
MVR evaporation and crystallization system for rare earth metallurgy RO reject: ammonium sulfate and chloride salt recovery, condensate ammonia polishing and ZLD compliance.
Evaporation–crystallization ZLD for SCR denitration catalyst manufacturing and regeneration wastewater: removing 95%+ of salts, vanadium and tungsten in one phase-change step, returning reusable condensate
How black liquor evaporation plants lift weak black liquor to firing solids for the recovery boiler, the four engineering challenges that decide performance, and
Cathode plants turn their sodium load into value with a sequenced train – heavy-metal recovery, ammonia removal, then MVR evaporation crystallization producing saleable sodium
Catalytic decomposition destroys N2O from adipic acid nitric-oxidation off-gas (GWP roughly 270x CO2), while MVR evaporation-crystallization handles acidic mother liquor – crystallization difficulties, treatment
Evaporation and crystallization systems for erythritol, sorbitol, and allulose: MVR falling film concentration to Maillard control, melt versus cooling crystallization routes, and viscosity boundaries.
Evidence constraint. Only authorized or anonymized project information is displayed on this page. Process parameters cited (TDS, COD, throughput, particle size distribution, steam economy) are bounded by documented operating conditions and should not be extrapolated to other feed compositions, capacities or utility profiles without project-specific re-validation.
Send your feed characterization (TDS, COD, main salts, viscosity), throughput and product targets — we respond with a preliminary process route within two business days.
