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Specifically designed for non-ferrous mining applications, including copper, molybdenum, and uranium ore processing, Strudex components excel in highly acidic/alkaline (pH 13-14), high-temperature (>80°C), and chemically aggressive slurries, delivering longer service life and superior operational efficiency compared to conventional alternatives.
Manufactured using advanced polymer composites or reinforced elastomers, Strudex rotors and stators resist abrasive wear significantly better than standard steel or rubber components, reducing replacement frequency by up to 40%.
Unlike metal impellers that degrade in acidic/alkaline conditions, Strudex materials remain stable in pH extremes (1-14), including uranium leaching processes where radiation and chemical attack accelerate wear.
Specially engineered to withstand radioactive and oxidative environments, making them ideal for uranium ore flotation and recovery operations.
The optimized impeller-stator geometry ensures maximum bubble dispersion, improved particle attachment, and energy-efficient mixing, leading to higher mineral recovery rates (5-15% increase) while reducing power consumption.
Specifically designed for non-ferrous mining applications, including copper, molybdenum, and uranium ore processing, Strudex components excel in highly acidic/alkaline (pH 13-14), high-temperature (>80°C), and chemically aggressive slurries, delivering longer service life and superior operational efficiency compared to conventional alternatives.
Manufactured using advanced polymer composites or reinforced elastomers, Strudex rotors and stators resist abrasive wear significantly better than standard steel or rubber components, reducing replacement frequency by up to 40%.
Unlike metal impellers that degrade in acidic/alkaline conditions, Strudex materials remain stable in pH extremes (1-14), including uranium leaching processes where radiation and chemical attack accelerate wear.
Specially engineered to withstand radioactive and oxidative environments, making them ideal for uranium ore flotation and recovery operations.
The optimized impeller-stator geometry ensures maximum bubble dispersion, improved particle attachment, and energy-efficient mixing, leading to higher mineral recovery rates (5-15% increase) while reducing power consumption.