Laser marking machine advantages

Laser marking technology has been applied more and more in the printing field in recent years. Laser marking can be applied to various materials including plastics and rubbers, metals, and silicon wafers. Compared with traditional mechanical engraving, chemical etching, screen printing, ink printing, etc., laser marking has low cost, high flexibility, and can be controlled by a computer system, and the firmness and permanentness of the mark produced by the laser acting on the surface of the workpiece is Its outstanding features. Currently, in the marking and printing industry, laser marking has occupied more than 90% of the market. The reason why laser marking has such a large share is because it has the following eight advantages:

1. Permanent: Marks will not fade due to environmental concerns (touch, acidity and reduced gas, high temperature, low temperature, etc.).

2. Anti-counterfeiting: Marks carved out by laser marking technology are not easy to imitate and change, and have a strong anti-counterfeiting property to some extent.

3, non-contact: laser marking is a non-mechanical "light knife" for processing, can be printed on any regular or irregular surface mark, and the workpiece will not produce internal stress after marking, to ensure the original accuracy of the workpiece. No corrosion on the working surface, no "tool" wear, no poison, no pollution.

4. Wide applicability: With laser processing methods, it can process a variety of metal and non-metal materials (aluminum, copper, iron, wood products, etc.).

5, high engraving accuracy: laser marking machine carved objects fine pattern, the minimum line width up to 0.04mm. Marking is clear, long-lasting and beautiful. Laser marking can meet the need for printing large amounts of data on very small plastic parts. For example, two-dimensional bar codes that require more precise and sharper definition can be printed, and have a stronger market competitiveness than embossing or inkjet marking.

6, low operating costs: Marking speed and marking a molding, energy consumption, and thus low operating costs. Although laser marking equipment investment is larger than traditional marking equipment, the use of laser marking machines is much lower in terms of operating costs. For example: plastic triode marking: marking machine working speed is 10 / sec, if the equipment is depreciated for 5 years, the marking cost is 0.00048 yuan / month. If a pad printer is used, its overall operating cost is about 0.002 yuan/a, or even higher.

7. High processing efficiency: The laser beam under computer control can be moved at a high speed (up to 5 to 7 meters per second), and the marking process can be completed within seconds.

8, the development speed: due to the combination of laser technology and computer technology, users can achieve laser printing output as long as the computer programming, and can change the print design at any time, fundamentally replace the traditional mold making process, in order to shorten the product upgrade Replacement cycle and flexible production provide convenient tools.

Dioxaborolane Series is widely used in Suzuki reaction

The Suzuki reaction is an organic reaction, classified as a coupling reaction, where the coupling partners are a boronic acid and an organohalide catalyzed by a palladium(0) complex. It was first published in 1979 by Akira Suzuki and he shared the 2010 Nobel Prize in Chemistry with Richard F. Heck and Ei-ichi Negishi for their effort for discovery and development of palladium-catalyzed cross couplings in organic synthesis. In many publications this reaction also goes by the name Suzuki–Miyaura reaction and is also referred to as the Suzuki coupling. It is widely used to synthesize poly-olefins, styrenes, and substituted biphenyls. Several reviews have been published describing advancements and the development of the Suzuki Reaction.[5][6][7] The general scheme for the Suzuki reaction is shown below where a carbon-carbon single bond is formed by coupling an organoboron species (R1-BY2) with a halide (R2-X) using a palladium catalyst and a base.




Dioxaborolane Series

Dioxaborolane Series,214360-69-7 Large Scale,214360-69-7 In Stock,1356963-11-5 Large Scale

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