Pressa piegatrice AMADA M3 1003 usata in vendita

A AMADA M3 1003 Press Brake is a versatile machine tool used in metalworking and fabrication processes. It’s designed to bend sheet metal into various shapes and angles. Here’s a breakdown of its components and operation

1. Telaio: The frame provides the structural support for the press brake. It’s typically made of welded steel or cast iron to withstand the high forces generated during bending.AMADA M3 1003 Press Brake
2. Ram (trave superiore): The ram is the upper part of the press brake that holds the punch. It moves vertically to apply force to the sheet metal, causing it to bend against the die.AMADA RG M3 1003 Press Brake
3. Letto (trave inferiore): Il basamento è la parte fissa della pressa piegatrice su cui è montata la matrice. Fornisce una superficie piana contro cui la lamiera viene premuta durante la piegatura.
4. Punch: The punch is the tool mounted on the ram that comes into contact with the sheet metal. It applies force to the metal, causing it to deform and bend.AMADA M3 1003 Press Brake
5. Morire: La matrice è montata sul basamento e fornisce la forza di contrasto al punzone. Determina la forma finale e l'angolo della piega.
6. Battuta posteriore: Alcune presse piegatrici sono dotate di un registro posteriore, un dispositivo che aiuta a posizionare con precisione la lamiera per la piegatura. Può essere regolato manualmente o controllato da un CNC per un posizionamento preciso.
7. Sistema idraulico: Press brakes often use hydraulic systems to generate the force needed for bending. Hydraulic cylinders apply pressure to the ram, allowing for controlled and precise bending operations.
8. Pannello di controllo: Modern press brakes are equipped with electronic control panels that allow operators to input bending parameters such as bend angle, bend length, and material thickness. CNC (Computer Numerical Control) press brakes offer advanced automation and programming capabilities for complex bending operations.

The operation of a press brake involves clamping the sheet metal between the punch and die and then activating the hydraulic system to apply force, gradually bending the metal to the desired angle. Skilled operators use a combination of experience and precision control to produce accurate bends according to engineering specifications.