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Key Technology - Laser Applications

Laser Etching

Laser etching is a broad term that encompasses a variety of engravings and shallow engravings.It can be applied to a wide range of products and materials, including automotive parts, medical devices, wine barrels, microelectronic components, and tombstones.In general, laser etching is distinguished from marking in that it changes the surface roughness of a part, rather than simply changing the surface color or texture.The primary use of laser etching is to create fine patterns, designs, text, images, etc. on a variety of materials, and the technology is widely used in many industries due to its precision, speed, and versatility.

Applicable Materials

#Plastic#Metal#Quartz#ETC
Technical Features
Material Versatility : Applicable to almost all types of materials, including plastics, metals, glass, and ceramics
Precision : Precise patterns can be created using laser beamsNon-contact, non-wear processing
Areas of application
Automotive parts, medical devices, microelectronics
Manufacturing precision parts such as electronic devices
Various metal and plastic parts
Key variables
Laser wavelength, power, irradiance, repetition rate, scan pattern, focus position

Laser Cleaning

Laser cleaning is a non-contact method that uses high-energy laser beams to remove contaminants from surfaces. The heat delivered melts the material, forming a molten weld pool, which then cools and fuses the target area. This technology is gaining attention as an environmentally friendly and precise alternative to conventional chemical and mechanical cleaning methods in various industries.

Applicable Materials

#Plastic#Metal#ETC
Technical Features
Removal of contaminants by heat : Rapidly heats the surface contaminant layer to vaporize it or peels off the contaminant with gas pressure and shock waves
Non-contact, non-wear processing : Selectively removes only contaminants without damaging the substrateEnvironmentally friendly, no environmental pollution, no waste
Areas of application
Aerospace and automotive industries : parts cleaning, paint removal, maintenance
Metal surface cleaning : rust, oxides, oil removal
Heritage preservation : delicate restoration work
Manufacturing industries : surface preparation before welding and coating
Key variables
Pulse width, energy density, scan speed, exposure time, wavelength (typically Fiber 1064 nm)

Laser Plastic Cutting

Laser plastic cutting is a technology that uses high-energy laser beams to precisely cut plastics. It minimizes deformation and enables precise processing through non-contact cutting using heat. It is widely used in various industries due to its fast cutting speed and high productivity. It can be applied to various plastic materials and is especially useful when complex shapes and precise designs are required.

Applicable Materials

#Plastic
Technical Features
High-speed operation : Increased productivity with processing speeds much faster than mechanical cutting
Material diversity : Widely applicable to various plastics (acrylic, polycarbonate, polyethylene, etc.)
Non-contact processing : Processing without physical contact minimizes material damage
Areas of application
Display parts, precision parts for medical devices
Acrylic, film, plastic parts processing
Cutting, plastic products such as toy/lighting parts
Key variables
Output, irradiation speed, focal diameter, processing speed, wavelength (CO₂: 10.6μm, etc.)

Laser Marking

Laser marking is a technology that uses laser light to change the surface of a material to engrave logos, product names, serial numbers, etc. It can be used to change or carbonize the surface to create clear and durable markings. It is environmentally friendly as it can be applied to various materials without ink or chemicals. It can be applied to various materials and is especially widely used in industries that require precise and durable markings.

Applicable Materials

#Plastic#Metal#Quartz#ETC
Technical Features
High-precision marking : Precise patterns or characters can be printed in precise locations
Semi-permanent : Non-erasable and durable, suitable for long-term use
Applicable to various materials : Applicable to various materials such as metal, plastic, and wood
High-speed processing : Maximize production efficiency with fast marking speed
Areas of application
Automotive parts processing (serial number marking)
Electronic parts identification code marking
Medical device logo printing
Product identification marking for industrial parts, consumer goods, etc.
Key variables
Wavelength (Fiber/CO₂/UV), irradiation time, beam diameter, scanning speed, focus position

Laser Heat Treatment

Laser heat treatment is a technology that uses high-energy laser beams to locally heat the surface of a material to increase hardness and improve wear resistance. It allows rapid heating and cooling, minimizing deformation, and allows precise heat treatment of individual areas. It is used in various industries to improve the physical and chemical properties of materials.

Applicable Materials

#Metal#ETC
Technical Features
Precision heat treatment : Locally focused high energy enables precise heat treatment of only microscopic areas
High-density energy : Rapidly heats the surface, microstructure control possible
Improved material performance : Improved mechanical properties such as hardness, toughness, and fatigue strength, and enhanced durability
Areas of application
Automotive industry, parts processing
Aerospace industry, high-strength steel and engine parts durability enhancement
Metal processing, cutting tools, bearings, mold wear resistance enhancement
Electronics and electrical industry, surface treatment and improvement of electronic components
Key variables
Output, feed rate, beam size, exposure time, cooling rate

Laser Cladding

Laser cladding is a method of coating metal powder or wire by melting it on the surface of a base material using a laser beam. It is effective in forming a uniform coating layer, giving it stronger properties than existing materials, and extending the life of the part. This technology is widely used in various industries because it improves wear resistance, corrosion resistance, and heat resistance.

Applicable Materials

#Metal#ETC
Technical Features
Concentrated heating and rapid cooling : Use concentrated heat to melt the material, and rapid cooling to form a strong metal bond and microstructure
Minimized heat influence : Reduced deformation and damage to the workpiece
High-quality coating : High adhesion and uniform coating, low distortion and dilution
High-speed, high-precision coating
Can also be applied to complex shapes
Areas of application
Automotive industry, parts machining
Aerospace industry, high strength parts machining
Petroleum/marine equipment, high load machine parts, power generation equipment machining
High performance industrial metals, mold coating, maintenance, life extension
Key variables
Powder feed rate, laser power, track spacing, scan path, cooling rate

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