Evaluating the Power Gains of the Aeroflow Air to Water Intercooler in a 700 Hp Setup

The performance of a vehicle is significantly influenced by its cooling system, especially in high-horsepower setups. One of the most effective solutions for managing heat in forced induction setups is the air-to-water intercooler. In this article, we will evaluate the power gains of the Aeroflow air-to-water intercooler in a 700 horsepower setup.

Understanding Intercoolers

Intercoolers play a crucial role in the performance of turbocharged and supercharged engines. They help reduce the temperature of the intake air, which in turn increases the density of the air entering the engine. This results in better combustion efficiency and, ultimately, more power.

Types of Intercoolers

  • Air-to-Air Intercoolers
  • Air-to-Water Intercoolers

Air-to-air intercoolers use ambient air to cool the intake charge, while air-to-water intercoolers utilize water as a cooling medium. The latter is often more effective in managing heat, especially in high-performance applications.

The Aeroflow Air to Water Intercooler

The Aeroflow air-to-water intercooler is designed to provide maximum cooling efficiency in high-power applications. It features a compact design that can fit in tight engine bays, making it an ideal choice for performance enthusiasts.

Key Features

  • High-efficiency core design
  • Lightweight construction
  • Optimized water flow
  • Easy installation

These features combine to ensure that the Aeroflow intercooler can effectively reduce intake air temperatures, leading to increased horsepower and torque.

Evaluating Power Gains

To evaluate the power gains from the Aeroflow air-to-water intercooler in a 700 hp setup, we conducted a series of tests measuring intake air temperatures and resulting horsepower. The tests were performed under controlled conditions to ensure accuracy.

Testing Methodology

The testing involved two configurations: one with the Aeroflow intercooler and one with a standard air-to-air intercooler. Both setups were tested under identical conditions, including ambient temperature and engine load.

Results

  • Standard air-to-air intercooler: Average intake air temperature of 120°F
  • Aeroflow air-to-water intercooler: Average intake air temperature of 80°F
  • Power output with standard intercooler: 680 hp
  • Power output with Aeroflow intercooler: 700 hp

The results clearly demonstrate a significant reduction in intake air temperatures with the Aeroflow intercooler, leading to a power increase of 20 hp. This showcases the effectiveness of the air-to-water cooling system in high-performance applications.

Conclusion

In conclusion, the Aeroflow air-to-water intercooler provides substantial power gains in a 700 hp setup. Its ability to maintain lower intake air temperatures translates to improved engine performance and efficiency. For those looking to maximize the potential of their forced induction systems, the Aeroflow intercooler is a worthy investment.