technology has been rapidly gaining popularity in recent years due to its advantages over traditional marking methods. Laser marking allows for precise and permanent marking on various materials: metals, plastics, ceramics and glass. It also offers high marking speeds and low maintenance costs, making it an ideal choice for industrial applications.
Due to the increasing demand for high-quality marking in production, laser marking technology has undergone significant changes in recent years. In this article we look at the modernization of laser marking in industry and its impact on production processes.
Laser marking methods
Laser marking technology has evolved from simple surface etching to advanced marking methods: annealing, ablation and foaming.
- Annealing, which uses a low-power laser to create a permanent mark on the surface of a material without damaging it.
- Ablation involves removing a thin layer of material to create a high-contrast mark.
- Foaming creates an embossed mark by heating the material to form bubbles which remain after cooling.
High-speed marking
The development of high-speed laser marking systems has greatly increased production efficiency. High-speed marking speeds up processing time, increases productivity and reduces production costs. This is particularly useful in industries such as automotive, aerospace and electronics, where high volume production is required.
3D marking
Advances in laser technology have also enabled the use of 3D laser marking, which marks complex shapes and curved surfaces. 3D marking is particularly useful in industries such as medical and aerospace, where complex designs and shapes require precise marking. 3D marking is accomplished by positioning the focus in the XYZ axes. To provide a three-dimensional scanning field, galvanoscanners with a dynamic Z-axis are used.
Integration with Industry 4.0
Laser marking technology has also been integrated into Industry 4.0* to provide real-time data tracking and quality control. This enables manufacturers to track production processes in real time, identify defects and quality issues and make adjustments to improve product quality. In addition, laser marking technology has been integrated with robotic systems to automate the marking process, reducing the need for human intervention and increasing efficiency.
* The Fourth Industrial Revolution
Environmental sustainability
Modernization of laser marking technology is also aimed at reducing the environmental impact. New laser systems consume less energy, produce less waste and have a longer service life. In addition, laser marking technology has enabled the use of environmentally friendly marking materials such as water-based inks and coatings.
Industry applications
Laser marking technology has a wide range of industrial applications:
- product marking,
- Serial numbering,
- part identification,
- product marking, part identification and branding.
In addition, laser marking is widely used in the medical industry for marking surgical instruments and implants, as well as in the aerospace industry for marking components and parts.
Future Trends
The future of laser marking technology is focused on improving accuracy, speed and integration with Industry 4.0. In addition, advances in laser technology are enabling new applications such as laser engraving on glass and ceramics.
Another trend in the modernization of laser marking is the move toward automation and integration with other manufacturing processes. Many laser marking systems now include robotic arms or other automated mechanisms that can quickly and efficiently mark parts as they move along the production line.
Industry 4.0 and the Internet are also contributing to the modernization of laser marking: many laser marking systems are now connected to centralized networks that allow real-time tracking of production and quality data. This allows for better control of the production process, as well as the rapid identification and correction of any quality problems that arise.
The use of laser marking in medical device manufacturing is also becoming increasingly important, as it allows for precise marking of small, fragile parts and components. Laser marking is also used to protect against counterfeiting, ensuring the authenticity and safe use of medical devices.
Conclusion
Modernization of laser marking technology has had a significant impact on production processes, enabling high-speed, accurate and consistent marking. Integration of laser marking technology with Industry 4.0 has enabled real-time data tracking and quality control, improving product quality and reducing costs. With continuous improvements in laser technology, the future of laser marking is promising, offering even more opportunities for industrial applications.
The global Direct Laser Marking Market research report, published by Value Market Research, is designed to offer various market framework such as market size, portion, trends, growth path, value and factors that impact the current market dynamics over the forecast period 2020-2027.
The research report also covers the comprehensive profiles of the key players in the market and an in-depth view of the competitive landscape worldwide.
This section consists of a holistic view of the competitive landscape that includes various strategic developments such as key mergers & acquisitions, future capacities, partnerships, financial overviews, collaborations, new product developments, new product launches, and other developments.Get more information on ""Global Direct Laser Marking Market Research Report"" by requesting FREE Sample Copy at https://www.valuemarketresearch.com/contact/direct-laser-marking-market/download-sampleMarket DynamicsThe global direct laser marking market is estimated to increase with booming end-use industries, rising automation, and high-efficiency requirement.
Companies increasingly prefer high-speed automated laser marking due to counterfeiting products' flourishing market and stringent quality and brand identification requirements.
Direct laser marking delivers durable, readable marks.
The results of these high-quality marking include greater operational efficiency and productivity, more visibility and accountability throughout the supply chain, less waste and downtime, ensured compliance with industry regulations, and minimized costly threats such as quality and counterfeiting issues.
Laser marking is a technique which is used to mark label products by using a small spot diameter laser beam.
They are commonly used for labelling brand name, best-before date, serial numbers and others.
Some of the common laser types are diode laser, solid state laser, fiber laser, and CO2 laser.Laser marking in electronics industry market is expected to grow at a rate of 5.50% in the forecast period of 2020 to 2027.
Data Bridge Market Research report on laser marking in electronics industry market provides analysis and insights regarding the various factors expected to be prevalent throughout the forecasted period while providing their impacts on the market’s growth.Download Sample Copy of Report Athttps://www.databridgemarketresearch.com/request-a-sample/?dbmr=global-laser-marking-in-electronics-industry-marketMarket Drivers and Restraints:On the basis of laser type, the laser marking in electronics industry market is segmented into fibre laser, diode laser, solid state laser and CO2 laser.
Solid state laser is further divided into yag laser and neodymium glass laser and thin disk laser.Offering segment of the laser marking in electronics industry is segmented into hardware, software and services.
Hardware segment is divided into laser, controller, filter, rotary device, galvanometer and power supply.
Laser marking is the process of distributing components or workpieces using laser technology.
Here learn about various types of lasers and procedures that are possible depending on your material.https://jaiambayetchingprocess.com/blog/how-laser-marking-process-does-work-on-any-metal/
