The Korelox all aluminum radiator this one actually cools off while driving and keeps it at a lower tempreture but above all gives it a stylish design under that hood of yours definately worth the purchase.
Vehicle Fitment:
Replacement for 2003-2010 DODGE RAM 2500 Pickup 4-Door/2-Door 5.9L L6 DIESEL OHV Turbocharged
Replacement for 2007-2010 DODGE Ram 2500 Pickup 4-Door/2-Door 6.7L L6 DIESEL OHV Turbocharged
Replacement for 2003-2007 DODGE RAM 3500 Pickup 4-Door/2-Door 5.9L L6 DIESEL OHV Turbocharged
Replacement for 2007-2009 DODGE Ram 3500 Pickup 4-Door/2-Door 6.7L L6 DIESEL OHV Turbocharged
Replacement for 2005-2006 DODGE Ram 4000 5.9L L6 DIESEL OHV Turbocharged
Replacement for 2008-2009 DODGE Ram 4500 Pickup 4-Door/2-Door 6.7L L6 DIESEL OHV Turbocharged
Replacement for 2008-2009 DODGE Ram 5500 Pickup 4-Door/2-Door 6.7L L6 DIESEL OHV Turbocharged
Replacement for Dodge 2500 3500 5.9L 6.7L L6 Diesel Turbocharged Cummins Engine
Specifications:
High Performance Racing Spec.
100% Tig welded, no epoxy
1-Row of tubes Core Racing Design
Material: AA5052 Aluminum
Core Size: 28.1" x 27"
Overall Size: 37.87 x 30.41" x 5.83"
Upper Inlet OD: 1.97"
Lower Outlet OD: 1.97"
Engine Oil Cooler: No
Transmission: MT
Performance: Up to 30%-40% Cooling
Fitment Type: Direct Replacement
Professional Installation is Highly Recommended
No Instruction Included
Please Check the Picture and Size Before You Buy!
Package Include:
1 X Aluminum Radiator
Features:
The core of the radiator is welded in vacuum brazing furnace, no epoxy.The Radiator are 100% welded by TIG. This Korelox radiator is at least 40% more efficient than stock models and boasts a significantly higher coolant capacity, ensuring your cooling system operates effectively and resists temperature surges, especially in racing applications.
This aluminum radiator is engineered for maximum cooling efficiency, helping to prevent premature engine failure. Its lightweight construction features a high-heat transferring aluminum design with a tube and fin layout that dramatically increases surface area, allowing for more efficient heat dissipation.
