Back And Forth Motion System Functioning principle Back And Forth Motion System use a back and forth motion case UHING, mechanism which transforms the continuous rotation motion of a smooth shaft in a...
Back And Forth Motion System use a back and forth motion case UHING, mechanism which transforms the continuous rotation motion of a smooth shaft in a linear back and forth motion. Cinematically, it is like a screw-nut system. However two supplementary functionalities can be achieved : the setting of the thread of the screw-nut system and the change of the thread direction (helix on the left or on the right). This last functionality allows to change the displacement direction of the case. Otherwise, thanks to a special feature, the inversion of the translation direction of the case is almost instantaneous.
These mechanisms are used a lot in the winding techniques. They are used to distribute correctly the wires or the cables on a bobbin. Technically, for this operation, it is important to check:
The reversing speed which conditions the quality of the winding .
The non sliding between the interior rings of the bearings considering as the nut and the shaft whatever is the acceleration of the case.
The non sliding during the loading of the case
This system allows to make practical works in the fields of the Mechanical engineering and electrical engineering:
This system has a high-level mechanical aspect because of the complexity of the reversing and setting thread motion transformation case. It allows to study the functional analysis of the different functions:
To measure the performances of the system (thread setting, transmissible effort before sliding.
To cinematically model the UHING system (contact shaft – bearing ring, thread setting system.
To make a computer simulation (SolidWorks) in relation to the thread setting and direction change subsystems.
The electrical and control aspects are also very important with the Direct Current motor and its 4 quadrants speed driver, the instrumentation (speed, position and force sensors).
Practical works list:
A testing bench including
The rotational speed of the motor by a tachometer
The speed of transfer of the case by a tachogenerator
The motor current, picture of the torque
The angular position of the bearing axis similar to a nut according to the time during the reversing time by a potentiometer sensor.
A force sensor allowing to test limits sliding force.
A control cabinet including:
Back And Forth Motion System use a back and forth motion case UHING, mechanism which transforms the continuous rotation motion of a smooth shaft in a linear back and forth motion. Cinematically, it is like a screw-nut system. However two supplementary functionalities can be achieved : the setting of the thread of the screw-nut system and the change of the thread direction (helix on the left or on the right). This last functionality allows to change the displacement direction of the case. Otherwise, thanks to a special feature, the inversion of the translation direction of the case is almost instantaneous.
These mechanisms are used a lot in the winding techniques. They are used to distribute correctly the wires or the cables on a bobbin. Technically, for this operation, it is important to check:
The reversing speed which conditions the quality of the winding .
The non sliding between the interior rings of the bearings considering as the nut and the shaft whatever is the acceleration of the case.
The non sliding during the loading of the case
This system allows to make practical works in the fields of the Mechanical engineering and electrical engineering:
This system has a high-level mechanical aspect because of the complexity of the reversing and setting thread motion transformation case. It allows to study the functional analysis of the different functions:
To measure the performances of the system (thread setting, transmissible effort before sliding.
To cinematically model the UHING system (contact shaft – bearing ring, thread setting system.
To make a computer simulation (SolidWorks) in relation to the thread setting and direction change subsystems.
The electrical and control aspects are also very important with the Direct Current motor and its 4 quadrants speed driver, the instrumentation (speed, position and force sensors).
Practical works list:
A testing bench including
The rotational speed of the motor by a tachometer
The speed of transfer of the case by a tachogenerator
The motor current, picture of the torque
The angular position of the bearing axis similar to a nut according to the time during the reversing time by a potentiometer sensor.
A force sensor allowing to test limits sliding force.
A control cabinet including:
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