
Hayward | SPX3026C | Super II Pump Impeller 3 HP | Replacement Hydraulic Component
The Hayward SPX3026C Super II Pump Impeller 3 HP is a replacement internal hydraulic component designed for compatible Super II pool pump models with a 3 horsepower motor. This impeller converts rotational energy from the motor into water flow, helping restore optimal circulation, pressure, and filtration performance when the original impeller is worn, damaged, or has reduced efficiency due to normal use.
Key Features
• Replacement impeller engineered specifically for 3 HP Super II pump applications.
• Transfers motor rotational force into effective water movement through the pump housing.
• Helps restore circulation performance reduced by impeller wear, cavitation, or debris damage.
• Supports consistent flow and pressure required for efficient filtration and system performance.
• Constructed for continuous exposure to pool water, pressure, and typical operating environments.
• Ideal for use during pump rebuilds, repairs, or routine maintenance.
Product Overview
The Hayward SPX3026C Super II Pump Impeller 3 HP is a critical hydraulic component located within the wet end of compatible Super II pool pump systems. As the motor spins the impeller, centrifugal force moves water through the pump, enabling efficient circulation and filtration by pushing water through the filter and returning it to the pool. Over extended use, impellers can wear from cavitation, debris impact, and general mechanical stress, which may diminish pump efficiency, reduce flow capacity, and increase strain on the motor.
Replacing a compromised impeller with the SPX3026C helps restore proper hydraulic balance and water movement, contributing to reliable circulation and maintaining system performance. This replacement impeller is commonly used during routine maintenance intervals, service rebuilds, or when diagnosing flow performance issues, helping extend the service life and efficiency of compatible Hayward Super II pool pump installations.
Original: $64.99
-65%$64.99
$22.75Product Information
Product Information
Shipping & Returns
Shipping & Returns
Description
The Hayward SPX3026C Super II Pump Impeller 3 HP is a replacement internal hydraulic component designed for compatible Super II pool pump models with a 3 horsepower motor. This impeller converts rotational energy from the motor into water flow, helping restore optimal circulation, pressure, and filtration performance when the original impeller is worn, damaged, or has reduced efficiency due to normal use.
Key Features
• Replacement impeller engineered specifically for 3 HP Super II pump applications.
• Transfers motor rotational force into effective water movement through the pump housing.
• Helps restore circulation performance reduced by impeller wear, cavitation, or debris damage.
• Supports consistent flow and pressure required for efficient filtration and system performance.
• Constructed for continuous exposure to pool water, pressure, and typical operating environments.
• Ideal for use during pump rebuilds, repairs, or routine maintenance.
Product Overview
The Hayward SPX3026C Super II Pump Impeller 3 HP is a critical hydraulic component located within the wet end of compatible Super II pool pump systems. As the motor spins the impeller, centrifugal force moves water through the pump, enabling efficient circulation and filtration by pushing water through the filter and returning it to the pool. Over extended use, impellers can wear from cavitation, debris impact, and general mechanical stress, which may diminish pump efficiency, reduce flow capacity, and increase strain on the motor.
Replacing a compromised impeller with the SPX3026C helps restore proper hydraulic balance and water movement, contributing to reliable circulation and maintaining system performance. This replacement impeller is commonly used during routine maintenance intervals, service rebuilds, or when diagnosing flow performance issues, helping extend the service life and efficiency of compatible Hayward Super II pool pump installations.











