The die casting process is a complex interplay of technology, precision and efficiency. From the sophisticated die-casting machine to the automated periphery to the precise tooling and optimised use of operating materials - every detail contributes to the production of high-quality metal parts. With a focus on sustainability and advancing technology, the die casting process remains a cornerstone of modern manufacturing, constantly evolving to meet industry demands.
Step 2: Die casting process
Further Information
The die casting process is an important step in modern metal processing and enables the production of high-precision components. In this process step, we examine the die casting process in detail and take a look at important aspects such as die casting machines, peripherals, toolmaking and consumables.
Die casting machines are at the heart of the die casting process. They enable the precise shaping of metal parts by injecting molten metal into special die casting molds. Modern die casting machines are equipped with advanced technology to ensure exact metering of the metal and high repeatability of shaping. This results in consistently high-quality end products.
The peripherals around the die casting machines play a decisive role in process optimization. Robotic systems remove the cast parts from the molds and enable automated further processing. Spraying and temperature control units ensure uniform cooling and temperature control of the tools, which helps to improve product quality. The post-treatment of die-cast parts is crucial in order to achieve the desired surface finish and dimensional accuracy. Peripheral equipment such as deburring tools, grinding machines and CNC machining centers play a crucial role in the finishing of cast parts. Quality down to the last detail is a central concern in the finishing process.
Mold and tool making is a central component of the die casting process and is largely responsible for the quality and efficiency of the production of complex components.
The tools - usually highly complex steel molds - are manufactured with the utmost precision. Modern technologies such as 5-axis HSC machining, high-precision spark erosion (EDM) and automated measuring systems are used. Additive manufacturing processes are also increasingly being integrated, for example for close contour cooling channels or complex mold inserts.
Digital tools such as simulations and digital twins make it possible to identify and optimize potential challenges in advance - even before the first part is cast.
The use of high-performance materials, intelligent cooling concepts and data-based maintenance strategies results in durable, process-reliable tools - optimally tailored to the requirements of modern foundry processes.
Additive manufacturing technologies, also known as 3D printing, are revolutionizing the die casting process. They enable the production of complex cast parts without the need for molds and tools. This leads to shorter development times and enables the production of prototypes and small batches with high precision. The use of 3D printing also opens up completely new possibilities in toolmaking for die casting. This means, for example, that tool designs can be continuously improved to increase the efficiency and quality of the die casting process.
Various operating materials and consumables are used in the die casting process. The choice of the right lubricants and protective materials influences the service life of the tools and the quality of the end products. A sustainable approach, such as minimum quantity spraying, involves optimizing these materials in order to conserve resources.
Digitalization is playing an increasingly important role in the die casting process. The networking of machines and systems enables real-time monitoring and optimization of processes. Data analysis and artificial intelligence help to increase efficiency and quality.