Thermal-Coated Intake Tube
The thermal-coated aluminum air tube improves laminar airflow, delivering cooler, denser air to the engine.
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Cold Air Inductions Inc.
717 Burnell Rd, Memphis,
MI 48041
Monday - Friday
8:00 AM - 4:30 PM ET
The thermal-coated aluminum air tube improves laminar airflow, delivering cooler, denser air to the engine.
Designed to OEM specifications with a slot style mass air flow (MAF) sensor, it delivers accurate airflow readings for consistent performanceThe thermal-coated aluminum air tube improves laminar airflow, delivering cooler, denser air to the engine.
Allows for easy filter inspection
Designed to meet strict OEM standards, the couplers and elbows combine high-grade silicone with stainless steel gaskets to create a secure heat resistant seal — built to withstand extreme temperatures and long term use.
The insulated aluminum air box paired with a black powder-coated finish delivers long-term durability and efficient heat dissipation – significantly enhancing engine power and responsiveness.
Made in the USA and built to last. The lifetime air filters utilize a 6-layer interwoven cotton pleat design engineered to capture particles as small as 5-microns – delivering exception filtration and engine protection.
The aluminum air box is lined with a thermal barrier that blocks engine heat, maintaining lower air intake temperatures for enhanced performance.
Engineering excellence requires testing that is both accurate and consistent. At Cold Air Inductions, every intake is validated through real-world closed-hood dyno testing, thermal analysis, and rigorous filtration testing to ensure measurable performance gains. We test, refine, and test again until the data proves that the design performs at its maximum potential.
Dyno results highlighting the enhanced airflow and increased power produced by the Cold Air Inductions intake system when compared to a stock intake under identical controlled conditions.
Multiple dyno pulls are conducted to monitor fuel trims and refine airflow characteristics until optimal calibration is achieved.
Dyno pulls are conducted with the hood down to ensure results reflect real-world driving environments.
We utilize a load-cell dyno to simulate real-world engine demands and validate performance across the full spectrum of operating conditions.
Thermal imaging technology is used to evaluate heat-soak zones and validate the performance of our ceramic coatings and thermal insulation in reducing air intake temperatures.
Our filters undergo controlled testing to verify particulate capture down to 5 microns while maintaining consistent airflow characteristics.
Our reusable, oiled cotton-gauze filters are engineered specifically for Cold Air Inductions intake systems to support airflow efficiency while maintaining effective engine protection. Engineered to meet ISO 5011 standards, a contoured velocity-stack design promotes smooth airflow transition, while the built-in base stop ensures proper fitment and supports accurate MAF signal readings. Reinforced wire mesh adds structural strength for long-term durability, and the serviceable filter media can be cleaned and re-oiled as part of routine maintenance. Proudly manufactured in the USA by Elite Performance Filtration.
Experience enhanced throttle response and acceleration with Cold Air Inductions’ intake systems engineered with precision and built from high-quality materials for optimal airflow and easy, bolt-on installation. By delivering cooler, denser air to your engine, our systems improve combustion efficiency and boost power output. Each intake features a clear viewing window for effortless inspection of the reusable high-performance air filter proudly made in the USA by Elite Performance Filtration - designed to block over 99% of particulates for lasting quality and superior engine protection. A cold air intake system should deliver more cold air to the engine, and that’s why Cold Air Inductions focuses on maximizing airflow while keeping intake temperatures as low as possible. Thermal imaging technology is used to evaluate heat‑soak zones and validate the performance of our ceramic coatings and thermal insulation in reducing air intake temperatures. This advanced approach is central to our design and development process. Thermal imaging allows us to identify the hottest areas in the engine bay and track how heat moves. With this data, we engineer our intake systems to avoid hot spots and ensure the airbox is properly insulated to protect incoming air from rising temperatures. During prototyping, thermal imaging also helps us detect any potential heat leaks within the system, allowing us to refine the design and maintain the coldest, densest airflow possible. By leveraging thermal imaging alongside advanced engineering methods, we consistently design cold air intake systems that deliver superior heat management, cooler airflow, and performance that sets the standard for competitors.