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Turbos Ford are becoming popular among car enthusiasts who want to upgrade their cars for better performance. The turbocharger uses the exhaust gases produced by the engine to spin a turbine. The turbine spins an impeller in a closely sealed housing. The impeller pulls air from the intake and pushes it into the engine's intake manifold at high pressure. This increases the density of the intake air. The engine then burns more fuel to extract the additional power from the compressed air. The result is a significant boost in horsepower and torque.
Different types of turbochargers are available for Ford vehicles. They include:
Variable-geometry turbos (VGTs)
Variable-geometry turbos VGTs are suitable for diesel engines. While the VTG turbo works by controlling the flow of exhaust gases that hit the turbine blades, the fixed-blade turbo does not have this feature. As a result, fixed-blade turbos cannot produce boost at low engine speeds.
VGTs have blades that can change position to optimize airflow. The VGT can close the blades to reduce the surface area when the engine is idling or running at low speeds. This helps the turbo spool faster and improves fuel efficiency. When the engine revs up, the VGT blades open up to maximize airflow and produce more boost.
Single and twin-turbo engines
Single-turbo engines have one turbos installed in the exhaust system. Ford single turbos are the most common type. They are affordable and simple to install. Single turbos also have a simple design and require minimal maintenance. On the flip side, single turbos can lag. The boost may not be instant, especially if one is driving a low RPM.
Twin-turbo engines have two turbos. The first turbo compresses air for the lower three cylinders, while the second turbo handles the upper three cylinders. The two turbos ensure the engine gets enough boost and power. Ford twin-turbo engines produce more power and torque. Because the two turbos work together, the boost is instant, and there is little to no lag. The main downside of twin turbos is that they are expensive and complex to install.
EcoBoost technology
EcoBoost refers to turbocharged direct-injection gasoline engines from Ford. EcoBoost technology enhances power and reduces emissions. Ford EcoBoost engines are suitable for off-road driving and can handle high speeds. The first EcoBoost engine was a 1.0-liter I3 introduced in 2012. The engine offered decent performance for small cars. In 2019, Ford increased the size of the EcoBoost engine to 3.5 liters. The V6 engine had better performance and could power larger trucks and SUVs. Other EcoBoost engines from Ford include the 2.3-liter I4 and the 5.2-liter V8 supercharged engine.
Below are some general specifications for Turbo Ford engines:
Engine Displacement
Some Turbocharged Ford vehicles have engines with varying engine displacements, which is the total volume of all the cylinders in the engine. For instance, a vehicle may have a 2.0-liter engine, which is equal to 2000 cubic centimeters. Vehicles with larger engine displacements may produce more power and torque than those with smaller engine displacements.
Power Output
Power output is the power produced by the engine and is measured in horsepower. Turbocharged engines have varying power outputs, depending on the size of the engine and the amount of boost the turbo provides. Generally, a Turbocharged Ford engine can produce more power than a non-turbocharged engine of the same size.
Torque
Torque is the rotational force produced by the engine and is measured in pound-feet (lb-ft). Like power output, torque can vary depending on the engine size and the turbo's boost level. Turbocharged engines usually provide more torque at lower engine speeds than non-turbocharged engines. The increased torque makes the car feel more responsive and provides better acceleration.
Boost Pressure
Boost pressure is the pressure created by the turbo in the intake manifold and is measured in pounds per square inch (psi). The boost pressure affects the power output of the engine. Higher boost pressure results in more power, but it can also cause engine damage if the pressure is too high. Turbocharged engines have varying levels of boost pressure, depending on the design of the turbocharger and the tuning of the engine control unit (ECU).
Air-Fuel Ratio
The air-fuel ratio is the ratio of air to fuel in the combustion chamber. Turbocharged engines require a precise air-fuel ratio to function optimally. If the ratio is too lean (more air than fuel), it can cause engine knock. Conversely, if the ratio is too rich (more fuel than air), it can result in poor fuel efficiency and increased emissions.
Intercooler
Many Turbocharged Ford vehicles come with an intercooler, which cools the air coming out of the turbo before it enters the engine. Cooled air has a higher density, so it can support more oxygen. As a result, the engine can produce more power and run more efficiently.
Fuel Type
Turbocharged engines require a specific fuel type to operate effectively. Most Turbocharged Ford vehicles use regular unleaded gasoline. However, some high-performance models may require premium gasoline with a higher octane rating. Premium gasoline can withstand higher pressure and temperature in the combustion chamber without igniting prematurely, which is crucial for high-boost applications.
Below are some general guidelines on how to maintain a Turbocharged Ford engine:
When reselling turbos for cars, it's important to understand the factors that affect the choice of a turbocharger. Here's what to consider:
Engine Compatibility
Car models and engine types determine the kind of turbo they can use. For instance, a turbo for a 2.0L EcoBoost engine may not work on a 5.0L V8 engine. This is because each engine has its own specifications that dictate the airflow and exhaust needs. Ensure the turbo matches the engine size and configuration. Otherwise, it won't fit or function properly.
Power Goals
Different turbos can produce varying levels of power depending on their design and capabilities. When choosing a turbo, think about how much power is desired from the engine. If looking for just a little boost, a smaller turbocharger will suffice. For high performance, especially in sports cars, go for larger turbochargers. The power output should align with what the vehicle can handle.
Quality and Reliability
Quality and reliability are key when selecting a turbocharger. A well-made turbo will last longer and perform better. However, turbos from reputable brands tend to cost more. Consider the budget but don't compromise on quality. It's also important to research the reliability of the turbocharger brand and model being considered.
Vehicle Make and Model
Some vehicles are designed to accommodate specific turbochargers. This is indicated by the make and model of the car. For example, Ford turbos are specifically designed for Ford vehicles. Choosing a turbo specific to the vehicle make and model ensures a proper fit and optimal performance.
Legal and Emissions Compliance
Legal regulations and emissions compliance can limit the choice of turbochargers. Some areas have strict emissions standards that must be met. Therefore, it's advisable to check that the turbocharger chosen complies with local laws regarding emissions. This avoids legal issues and ensures the vehicle is environmentally friendly.
Budget
Budget is a crucial factor when choosing turbos. Turbochargers vary in price depending on their type and brand. High-quality turbos are more expensive but offer better performance and durability. Additionally, consider the installation and maintenance costs associated with the turbocharger. Some require professional installation or specialized maintenance, which adds to the overall expense.
Replacing a turbocharger can be a complex process, but it can be done with the right tools, knowledge, and experience. Below is a general guide on how to replace a turbocharger:
Firstly, ensure that the new turbocharger is compatible with the vehicle's make, model, and engine specifications. Gather necessary tools such as socket and torque wrenches, screwdrivers, pliers, oil, and possibly specialized tools for turbo replacement.
Read the vehicle service manual to understand the turbocharger system and disassembly/assembly instructions. Disconnect the vehicle's battery to prevent any electrical issues or short circuits during the replacement process. Raise the vehicle and secure it on jack stands. This provides enough space to work under the vehicle and access the turbocharger.
Drain the engine oil and remove the oil drain line to prevent oil leaks and drainage. Remove the coolant hoses connected to the turbocharger. This allows for coolant drainage and prevents coolant leakage. Disconnect all the air intake pipes and intercooler connections. Remove any electrical connections like sensors and actuators associated with the turbo.
Now, remove the exhaust downpipe connected to the turbo. This allows for exhaust flow. Disconnect the wastegate and blow-off valve (if applicable) from the turbo assembly. Begin removing the turbocharger bolts and nuts holding it to the exhaust manifold. Carefully remove the turbocharger from the manifold.
Install the new turbocharger by reversing the disassembly steps. Ensure to use new gaskets and sealant where necessary to prevent leaks. Reconnect all electrical connections, air intake pipes, coolant hoses, oil lines, and the exhaust downpipe. Follow the manufacturer's instructions and torque specifications.
Once the new turbo is installed, pour new engine oil into the oil fill port. Then, ensure the cooling system is filled with coolant. Reconnect the vehicle's battery. Start the engine and let it run for a few minutes. Check for any oil or coolant leaks and address any issues. Take a test drive to ensure everything works properly.
Q1: Are single turbo and twin turbo the only turbo types?
A1: No, there are more turbos than single and twin. There are also variable-geometry turbos and electric turbos. However, single and twin turbos are the most common in cars.
Q2: Can a turbo be fitted to any car?
A2: Technically, a turbo can be fitted to any car. However, it is much easier to fit a turbo to a naturally aspirated engine. For manufacturers, adding a turbo to a vehicle requires a lot of changes and modifications.
Q3: How long does a turbo last?
A3: With proper maintenance and care, a turbo can last between 100,000 to 200,000 miles. The longevity of the turbo depends on how well it is taken care of.
Q4: Are turbos ford high maintenance?
A4: No, turbos are not high maintenance. However, they require some maintenance to ensure that they last a long time. The maintenance required is basically following the manufacturer's guide and taking care of the engine.