Definition of component positioning
Raw material production refers to the extraction, processing, and provision of natural or synthetic raw materials that serve as the basis for industrial value-added processes. Raw materials form the first stage of almost all production chains and are essential for industries such as mechanical engineering, the automotive industry, construction, energy production, and consumer goods manufacturing.
Objectives of component positioning
Component positioning pursues several technical and economic objectives:
- Ensuring electrical function through correctly aligned components
- Increasing production quality through reproducible, error-free placement
- Optimisation of the soldering process, in particular reflow or wave soldering
- Reduction of errors such as tombstoning, bridging or misalignment
- Increased efficiency in production thanks to automated placement
Steps, methods, control Raw materials on the way to production
Raw material production involves several process steps, which can vary greatly depending on the material:
1. extraction
Extraction or harvesting of raw materials, e.g. through mining, forestry, agriculture or offshore extraction.
2. preparation & refinement
Mechanical, thermal or chemical processes for separating, cleaning and improving the quality of raw materials.
3. transport & storage
Logistical processes to ensure the continuous supply of downstream production stages.
4. quality control
Testing of material properties such as purity, strength or composition to comply with industrial standards.
Component positioning in plant engineering
Precise component positioning plays a central role in plant engineering, as it forms the basis for high production quality, reliable plant function and long-term operational safety. Whether setting up machine modules, aligning large steel components or assembling complex mechatronic systems - exact positioning and angular alignment of the components is crucial for the subsequent performance of the overall system.
Modern positioning solutions support the assembly processes with automated axis systems, laser measurement processes and intelligent sensor technology. This minimises tolerances, shortens assembly times and reduces ergonomic stress for specialist personnel. Increasing digitalisation in plant engineering means that networked positioning systems that record data in real time, detect deviations and enable automatic corrections are also gaining in importance.
In conjunction with technologies such as robotics, machine vision and digital twins, component positioning is becoming an integral part of the Industry 4.0-capable production environment. It creates the prerequisites for reproducible quality, flexible adaptability to different products and cost-effective production, even with complex or large-format systems.
Optimised component positioning with FFT
If you want to optimise your production, improve your products and create innovations in new fields of application - we will find the right solution for your application and contribute our expertise in the field of component positioning to meet your requirements.
Trends and developments
Artificial intelligence & machine vision
Modern positioning systems are increasingly supported by artificial intelligence and powerful image processing technologies. AI-supported error detection makes it possible to identify deviations at an early stage and correct them automatically. At the same time, intelligent algorithms contribute to the automatic optimisation of positioning strategies, making processes faster, more precise and more robust. Self-calibrating systems also reduce manual effort and increase process stability.
Robotics and collaborative robots (cobots)
The increasing use of robotics and collaborative robots in particular is changing the way positioning tasks are carried out in assembly and production environments. Flexible assembly cells can be dynamically adapted to different products. Cobots enable direct collaboration between man and machine, making processes more flexible and efficient. At the same time, the simple and quick changeover also allows smaller batch sizes to be processed economically.
Additive manufacturing
Precise positioning technologies also play a central role in the field of additive manufacturing. Positioning steps are increasingly being integrated directly into 3D printing processes in order to produce highly complex components with minimal tolerances. Hybrid manufacturing approaches, in which additive and conventional processes are combined, also enable the direct embedding of components or structures during the manufacturing process.
Miniaturisation
As miniaturisation progresses, the demands on the precision of positioning are increasing considerably. To meet these challenges, new actuator principles such as piezoelectric, magnetic or electrostatic drive systems are being used. These technologies allow the finest movements in the micro and nanometre range and open up new application possibilities in electronics and medical technology.
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