A transmission mechanism for a fabric dyeing machine comprising at least one tower, said transmission mechanism comprising a motor and a drum, said transmission mechanism transmits rotation force from the motor to the drum, the drum being suitable for being located inside a tower body of said at least one tower of said fabric dyeing machine, the fabric dyeing machine has at least one housing for receiving said fabric, the housing is located inside a main body of the tower body and occupies the main part of the bottom area of the main body, the housing makes it possible to form a liquid bath; the at least one tower being located over each housing wherein its main liquid tank is located inside the main body; the at least one drum can be located on each tower and is suitable to support and direct the fabric through its continuous circulation in a closed circuit inside the housing; at least one nozzle which is located close to each drum, suitable for pushing liquid on the fabric; a liquid pipe which has one of its ends connected to a suction pipe located under the housing, at said main part of the bottom area of the main body, and its other end connected to the nozzle, suitable for providing liquid circulation via a pump located on it; at least one outlet pipe, which is located at each housing, for providing said continuous fabric circulation, connected to the tower body; characterized in that the transmission mechanism further comprises: a front plate, which forms the front of the drum, connected to a rear plate via a drum shaft, and the front plate having a flat surface and can rotate on its axis; at least 3 first cages located on the front plate, located at equal distances to the surface center of the front plate and to each other; a drive plate, which is connected to said motor via a drive shaft, the drive plate has a flat surface and rotates on its own axis with the rotation of the drive shaft; at least 3 second cages located on the drive plate, located at equal distances to the surface center of the drive plate and to each other; plural magnets located inside each first and second cage; the first and second cages are located opposingly when being located inside a body opening (21.1) in the tower; a sealing flange which is located between the drive plate and the front plate, being positioned so as to not come into contact with the first and second cages, said sealing flange being for providing the closure of the opening for insulation of the tower; a mounting bushing formed on a surface of the sealing flange between the front plate and the drive plate, which enables the drum shaft to be held and rotated in the desired plane. a front plate, which forms the front of the drum, connected to a rear plate via a drum shaft, and the front plate having a flat surface and can rotate on its axis; at least 3 first cages located on the front plate, located at equal distances to the surface center of the front plate and to each other; a drive plate, which is connected to said motor via a drive shaft, the drive plate has a flat surface and rotates on its own axis with the rotation of the drive shaft; at least 3 second cages located on the drive plate, located at equal distances to the surface center of the drive plate and to each other; plural magnets located inside each first and second cage; the first and second cages are located opposingly when being located inside a body opening (21.1) in the tower; a sealing flange which is located between the drive plate and the front plate, being positioned so as to not come into contact with the first and second cages, said sealing flange being for providing the closure of the opening for insulation of the tower; a mounting bushing formed on a surface of the sealing flange between the front plate and the drive plate, which enables the drum shaft to be held and rotated in the desired plane.