APR 1.8T/2.0T Intercooler System for MQB Platforms

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£961.95 inc VAT

£801.62 ex. VAT

  • APR 1.8T/2.0T Intercooler System for MQB Platforms
  • IC10019

Additional Information


PLEASE NOTE: This product cannot be sold outside of the UK. 

The APR 1.8T/2.0T Intercooler System for MQB Platform Vehicles
The APR Intercooler System is a OEM-location upgrade that dramatically reduces intake air temperature (IAT), minimizes heat soak, and provides increased performance! The system is a direct bolt-on upgrade that requires no trimming and is recommended at every stage of performance.
Quick Facts:
Dramatically lowers intake air temp (IAT)
Increases horsepower while minimizing power-robbing heat soak!

Effectiveness tested to over 500 HP!
21 horsepower gain over the factory system!

Massive core size
Use of the OEM-location allows for a massive intercooler core.
24.25” x 16.25” x 1.25” – 492.5 in³ – OEM GTI
24.25” x 16.25” x 1.37” – 541.8 in³ – OEM Golf R
24.00” x 16.25” x 2.25” – 877.5 in³ – APR

Intercooler installed in the best location for this platform
Utilizes factory air dams for exceptional airflow across the core.
100% compatible with the Adaptive Cruise Control (ACC) system.

Highly effective core design
Bar-and-plate core with staggered and louvered fins.
Rigorous testing determined core style, fin density, and size.
Low pressure drop + highly effective cooling = high performance!

Smooth cast end tanks
Engineered for low turbulence/restriction and maximum flow.
Organically shaped to promote airflow across entire core.
Pressure tested to prevent power robbing boost leaks.

No hidden labor costs or permanent modifications
No trimming, cutting, or other costly modification required.
No modification to the Adaptive Cruise Control System required.
Full directions and APR world-renowned customer support included.

Designed by engineers with lasers
With the best equipment and smartest engineers, it just works!
APR pioneered the OEM-location direct-replacement intercooler system in 2006. Unfortunately, to the untrained eye, many intercooler designs appear the same. However, effectiveness of the system and overall performance are greatly determined by several key metrics. Alloy selection, end tank design, construction type, fin style, fin density and overall core dimensions must be analyzed and balanced accordingly to deliver class-leading performance. While the OEM’s goal is to create a lightweight, easy to manufacture and inexpensive to produce, cross-platform design capable of supporting factory power levels, APR’s intercooler must be capable of supporting more than double the factory output. Achieving this goal took a multi-step approach focused around intercooler core selection, end tank design and install location.
Read through the list below to learn more!
Intercooler Core Design
The APR Intercooler core is a large bar-and-plate design featuring densely packed staggered and louvered fins. This design offers exceptional cooling while balancing pressure loss across the core, and maintaining critical airflow to the components behind the intercooler system. The core size was appropriately matched to the platform, minimizing pressure drop while leaving adequate space for appropriately designed end tanks. To APR’s mechanical engineering experts, the design represented the ultimate in performance, far exceeding the capabilities of the factory intercooler. To the driver, the result is simple: Repeatable performance, even in the most demanding of situations!
Core Style / Internal Fin Structure:
APR’s Engineers paid close attention to the balance between core effectiveness and pressure drop through the core, core style and fin density. With fin density too low, pressure drop decreases dramatically, but typically results in a core incapable of effectively cooling. Likewise, with fin density too great, pressure drop increases dramatically, resulting in the turbocharger working harder, and hotter, to produce the same level of airflow. By fine tuning this often unseen balancing act, as illustrated below, APR’s Engineers were able to maximize performance.
Core Styles

Number Type Fin Type Fin
Comments Recommended
1 Tube and Fin Straight Channel Low Low Low $ Poor Cooling Not Recommended
2 Bar-and-Plate Straight Channel Low Low Low $$ Poor Cooling Not Recommended
3 Quality Bar-and-Plate Staggered/Offset High Low High $$$ Excellent Cooling Recommended!
4 Overly Dense Bar-and-Plate Staggered/Offset High High High $$$ High pressure drop Not Recommended
Core Size:
APR’s Engineers also paid close attention to the balancing act between core effectiveness, pressure drop and space for end tanks through core sizing. With the core too small, pressure drop decreases dramatically, but typically results in a core incapable of effectively cooling. Likewise, with core size too great, pressure drop can increase, resulting in the turbocharger working harder. However, more importantly, with no space for appropriate end tanks, utilization of the core and overall effectiveness of the system diminishes rapidly, negating the benefit of the larger core. APR’s engineers were able to balance each of these characteristics to deliver maximum performance.
Core Specs
System Core Type Thickness Width Height Volume % Less Volume than APR
OEM GTI Tube and Fin 1.250" 24.25" 16.25" 492.5 in³ 78%
OEM Golf R Tube and Fin 1.375" 24.25" 16.25" 541.8 in³ 62%
APR Bar-and-Plate 2.250" 24.00" 16.25" 877.5 in³  
The APR intercooler system’s core volume, in terms of external dimensions, is 78% greater than the OEM GTI and 62% greater than the OEM Golf R Intercooler.
Intercooler End Tank Design
To fully utilize the massive core, APR’s mechanical engineers designed cast aluminum end tanks organically shaped for proper airflow distribution across the entire core. By correctly sizing the intercooler core, end tank design was not sacrificed. The one-piece end tanks are CNC machined to provide a slip resistant mounting surface for hoses, precise integrated mounting surfaces, and perfectly flat connecting surfaces used for TIG welding the tanks to the core. Through proper alignment in welding jigs, each unit is assembled to tight tolerances for a precise and accurate fit.
APR’s Engineers determined the proper end tank design, for this application, with the help of pressurized CFD flow analysis via the SimuTech Group, and finally through real world testing. During the analysis, the effect of directional vanes were studied to test their ability to aid in airflow distribution. Analysis concluded there was no perceivable benefit on this application as the vanes only added more weight to the system. Real world testing without directional vanes resulted in a +0.5 °C to -0.5 °C temperature spread from the bottom to the top of the core on the outlet side, throughout the various back-to-back tests, further concluding the design maximized cooling effectiveness of the core.
Intercooler Placement
Intercooler placement plays a critical role in overall performance. By utilizing the factory mounting location, APR’s engineers were able to design a core featuring a massive frontal surface area and large core volume, which plays a critical advantage over common short and stubby front mount designs. Utilization of the factory location means the core receives a high volume of pressurized airflow spread across the entire unit thanks to the highly engineered factory air dam system. Furthermore, by keeping the intercooler in the OEM-location and balancing core fin density, the factory air-to-water cooling system is not disrupted, which is ever so critical on this platform due to the use of an integrated cylinder head manifold cooling system.
The APR intercooler system simply fits, which helps save on hidden labor charges during the time of install. There are no compatibility issues with active cruise control (ACC) systems and the design leaves room for future engine / transmission oil cooling upgrades for track-going customers. The intercooler installs without trimming any air dams, core supports, or more. There’s no drilling, or permanent modifications to the vehicle. Simply follow the included directions and enjoy!
Internally APR conducted a multitude of tests while choosing the appropriate intercooler core and end tank design. Thermocouples were placed at the top and bottom of the core to measure cooling effectiveness and cooling distribution across the entire unit. Pressure transducers were placed at the inlet and outlet of the intercooler to determine pressure loss across the various units. With this information, APR’s engineers specified the appropriate intercooler core type, dimensions, cooling fin density and made the necessary design changes to the end tanks to ensure full utilization of the entire core.
MK7 Golf GTI 2.0 TSI Intercooler Testing
The end result was development of a system that’s much more effective at cooling compared to the factory GTI and factory Golf R intercooler system. Effectiveness is measured as (Intercooler Inlet Temp – Intercooler Outlet Temp) / Intercooler Inlet Temp. The APR Intercooler system’s effectiveness under the most demanding situations was between 82-83% while the factory GTI struggled at 60% and the factory Golf R at 65%.
Testing Temperature Data Report
  Start Run 1 Run 2 Run 3 Run 4 Run 5 Run 6
OEM (GTI) 43 °C 71 °C 76 °C 79 °C 81 °C 83 °C 84 °C
OEM (Golf R) 42 °C 66 °C 74 °C 75 °C 77 °C 79 °C 82 °C
APR 42 °C 40 °C 47 °C 48 °C 48 °C 49 °C 49 °C
Delta (GTI) -1 °C -31 °C -29 °C -31 °C -33 °C -34 °C -35 °C
Delta (Golf R) 0 °C -26 °C -27 °C -27 °C -29 °C -30 °C -33 °C
MK7 Golf R 2.0 TSI Intercooler Testing
Back-to-back stress testing on the dyno help to further prove APR’s intercooler upgrade’s effectiveness compared to the factory unit. Tests were first conducted with an APR Stage 2 MK7 Golf R using the factory intercooler, then APR’s Intercooler system. Each dyno pull lasted 12 seconds with 5 seconds of dwell between runs. Raw sensor data was collected using APR’s ECU Explorer high resolution datalogging system.
The tests quickly proved the factory Golf R intercooler could not effectively reject heat soak on vehicles equipped with APR’s performance software. However, the APR intercooler saw a dramatic difference that made a positive impact on performance.
The factory intercoolers saw a starting IAT of 26 °C which climbed to as high as 46 °C by the end of only the first pull. In contrast, the APR intercooler system saw IAT’s only raise 1 °C! The APR system effectively rejected heat soak and by the end of the sixth run saw a final IAT of 36 °C where as the factory intercoolers struggled to keep up, resulting in a final performance robbing IAT of 54 °C. This translated to a final gain of 14 WHP over the Golf R intercooler!
Testing Data Report
  Start Run 1 Run 2 Run 3 Run 4 Run 5 Run 6
OEM 26 °C 46 °C 50 °C 52 °C 52 °C 54 °C 54 °C
APR 29 °C 30 °C 33 °C 35 °C 35 °C 36 °C 36 °C
Delta +3 °C -16 °C -17 °C -17 °C -17 °C -18 °C -18 °C
Application Guide
Make Model Engines Part Price Exc. VAT Price Inc. VAT  
Audi A3 / S3 - (Typ 8V / MK3) 1.8 TFSI / 2.0 TFSI - (EA888 Gen 3) IC100019 £848.33 £1018.00  
Audi TT / TT S - (Typ 8S - MK3) 1.8 TFSI / 2.0 TFSI - (EA888 Gen 3) IC100019 £848.33 £1018.00  
Seat Leon / Cupra - (Typ 5F - MK3) 1.8 TSI / 2.0 TSI - (EA888 Gen 3) IC100019 £848.33 £1018.00  
Skoda Octavia / VRS - (Typ 5E - MK3) 1.8 TSI / 2.0 TSI - (EA888 Gen 3) IC100019 £848.33 £1018.00  
Skoda Superb - (Typ 3V - B8) 1.8 TSI / 2.0 TSI - (EA888 Gen 3) IC100019 £848.33 £1018.00  
Volkswagen Golf / GTI / R - (Typ 5G - MK7) 1.8 TSI / 2.0 TSI - (EA888 Gen 3) IC100019 £848.33 £1018.00  
Volkswagen Passat - (Typ 3G - B8) 1.8 TSI / 2.0 TSI - (EA888 Gen 3) IC100019 £848.33 £1018.00