Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)
Kline Innovation - Exhaust System (720S)

Kline Innovation - Exhaust System (720S)

Sale price$3,450.00
System Material:Stainless Steel (304)
Select Downpipe Option:Reuse OEM
Select Tip Option:Reuse OEM
Quantity:
FITMENT
  • 2017 - Present McLaren 720S
  • Note - If you have a valved system or want to add the valvetronic functionality to this system, please contact us
    DETAILS

    The McLaren 720s, with its 4.0l twin turbo v8, producing 720hp, and 0-60 time in 2.7 seconds, is designed to shake up the established supercar industry. With ferocious acceleration, and superb handling, the 720s is a force to be reckoned with! Despite this, the current trend for turbo induction supercars, has the 720s in need of a little sonic makeover.

    Kline's main design criteria, to make the 570S scream like a supercar should!

    High flow catalysts, or competition downpipes, open the volume up significantly, while Kline's signature 1D CLR tight radius x pipe raises the pitch to where a supercar should be. Crafted from premium F1 grade, Inconel 625 superalloy, not only vastly reducing weight, but also adds that special tonal quality to the McLaren that can only be achieved by Kline Inconel range.

    Available in competition for optimum sound and performance, or a choice of 100 or 200 cell high flow sports cats. The cats section is modular, allowing the cats to be swapped with competition very rapidly, depending on intended use.

    Performance: Replacing the factory catalysts with Kline's 100 CPSI HJS race cats, or competition opens the performance significantly.

    • 1OO CPSI race cats, 18hp,
    • 25nm competition, 35hp 40nm

    Materials: Available in premium grade Inconel 625 superally, full valvetronic system 5.5kg Available in 304 grade stainless steel, full valvetronic system 11kg

    Cross Sections: Competition cross section 70mm, 70mm x pipe. Catalysts come in a variety of cross sections from 108mm OD to 127mm OD

    ABOUT KLINE INNOVATION

    Kline Innovation Logo (Swift Speed - McLaren Specialists)

    Kline Innovation is a Bucharest, Romania based exotic exhaust manufacturer who utilizes exotic materials to innovate high-end systems for Porsche, Ferrari, Lamborghini, Aston Martin, Audi, Bentley and McLaren. At Kline they take exhaust design very seriously. Consumers demand a no compromise product, and they take a no compromise approach to design and manufacture.

    MATERIALS

    At Kline Innovation they believe in the absolute best materials for every application, chosen scientifically by the materials natural properties. Titanium/Inconel/Carbon fiber exhaust boutique, they also offer 304 stainless steel as an alternative on their complete range. Every material has its own unique properties, and perfect application based on weight, strength, heat resistance, and chemical stability. Kline strives to craft some of the world’s best lightweight exhausts utilizing every innovation possible!

    The following is a brief overview and explanation of the different materials they use, properties, and functions.

    INCONEL

    Inconel 625 is used in the aerospace industry where extremely durable and heat withstanding components are required. As an example, Inconel is used for the exhaust turbine blades in high performance jet engines. Inconel is used for the manufacture of formula one exhausts, and has also been used by some manufacturers on hypercar projects such as the Mcalren P1, Aston Martin 177, where lightness is a factor, and exhaust temperatures regularly exceed 1800 degrees fahrenheit.

    The basic properties of Inconel are characterized by extremely high tensile strength, and extreme thermos-chemical stability. Due to the high tensile strength of Inconel (roughly the same strength to weight ratio as titanium), very thin sidewall material can be used, while still maintaining structural integrity, resulting in very light weight components that will not fatigue over time. The main drawbacks to using Inconel, is that it’s extremely difficult to machine and weld, and requires a high degree of skill and involves a time consuming processes. It’s also extremely expensive as a raw material.

    TITANIUM

    Titanium in its varying grades is commonly used in a variety of applications where strength to weight ratio is paramount. Very high tensile strength and low density mean that very light and strong components can be manufactured easily. Titanium is also relatively easy to machine and weld using standard engineering approaches. The main disadvantages to titanium, is the cost of material, and prolonged heat exposure exceeding 1100 degrees fahrenheit causes oxidation of the material, resulting in brittle components and potential breakages. For this reason titanium is best suited to cooler applications where strength and lightness is a factor.

    STAINLESS 304

    Stainless steel 304 grade has become the industry standard for exhaust manufacturing. It’s moderate strength, thermos-chemical stability, inexpensive, and easy to manufacture. 304 stainless can be used to build relatively inexpensive exhausts to a high standard of functionality and durability. The main drawback to stainless steel is the weight. Roughly the same density of steel, but reduced tensile strength, building high performance exhaust components from stainless can be limited. Also from the perspective of sound, the thick sidewall required from stainless, can produce a slightly dull lackluster sounding exhaust note when compared to the previously mentioned materials!

    CARBON FIBER

    Carbon fiber reinforced polymer has an extremely high tensile strength to weight ratio, surpassing that of all metals. Extremely light weight components can be molded to almost any shape. The main drawback to carbon fiber being, the material cost, the fatigue endurance limit is hard to define (the material can break unexpectedly), and the lack of prolonged heat resistance due to the polymer binding agent.