A manual transmission for use in an automotive vehicle is generally connected to the engine through a friction clutch whose engagement and disengagement is determined by the manual movement of a clutch pedal, typically controlled by the vehicle driver with his/her foot. Frequent applying the clutch pedal in high density traffic or holding the clutch pedal down during long stops can be fatiguing to the driver.
Therefore, a clutch booster to reduce the effort required to operate such a clutch of a vehicle is desirable. With hydraulic assistance the disengagement of the vehicle's transmission can be easily accomplished.
A conventional clutch booster is generally designed to convert the stamp-down force on the clutch pedal of an automobile into a corresponding hydraulic pressure by way of a master cylinder incorporated in the hydraulic clutch system. With this construction, it is essentially required to adapt the master cylinder and the hydraulic piping therefor in the hydraulic clutch system, or to provide the clutch booster with a hydraulic cylinder, and the like, which would naturally make this system complicated substantially in its mechanical construction, and consequently, result in an economical disadvantage in its production cost.
Additionally, clutches generally have a plurality of plates with friction engaging surfaces that transmit torque when the clutch plates (discs) are compressed and interrupt torque transfer when pressure is released from the clutch plates. All clutches are subject to wear over time and require adjustment to provide a desired clutch engagement position for optimal performance.
Clutch boosters with the abilities of either automatically or manually adjusting clutches have been developed. However, automatically adjusting clutches require complicated mechanical linkages that add cost to the clutch assembly. Automatically adjusting clutches also require additional parts that add weight and may complicate clutch operation. Manually adjusted clutches may provide the optimal performance associated with a properly adjusted clutch but require periodic manual adjustments. In addition, it is difficult to determine the extent of clutch wear without disassembling the clutch with most clutch assemblies.
The clutch master cylinder is on the drivers side under the hood behind the brake booster.
reduce the effort that apply from the clucth pedal by driver
under the brake booster
it is located on the firewall under the brake booster
No.
Open the hood, and take a look at your firewall. If it has a clutch master cylinder its a hydrolic. If you only see your brake booster and thats it, chances are its a cable clutch. But as a basic rule, if you have a master and slave cylinder it is hydrolic.
my clutch went to the floor what happened?
The Brakes on your truck. I am assuming this is a newer model with a Vacuum booster. Most likely what is happening is that there is either air in the lines and the booster is overcompensating, or there is a vacuum leak and the booster does not work because of that.
The clutch fluid reservoir is on the firewall, in front of the driver, immediately to the right of the brake booster. The fluid should be clear, and at the appropriate level as indicated on the side of the reservoir.
no not even Saturday
There should be a small resivor by the brake booster on the driver side of engine compartment for clutch fluid.
The clutch hydraulic fluid reservoir for a Mazda 121 is located next to the brake booster and brake master cylinder. The reservoir is small and round and is close to the driver side fender.