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Surgical Instruments
Surgical instruments can be challenging to manufacture as they may be very small, quite long, or have angled features. Despite this, they need to withstand high mechanical loads in medical procedures. Additionally, they are often subjected to high temperatures and corrosive chemical cleaners for sterilization, which can damage their adhesive joints. Laser systems provide solutions to these challenges.
Implantable Medical Devices
The manufacturing requirements for active implantable medical devices such as pacemakers or sensors are stringent. On one hand, sensitive electronic components must be used in the final product. On the other hand, a sealed enclosure is needed to prevent substances from entering and damaging the battery or circuitry. With laser technology, you can establish stable helium gas-tight seals that can withstand loads and achieve non-destructive electrical connections.
Additive Manufacturing in Dental Technology
Additive manufacturing has revolutionized dentistry in recent years, allowing for the rapid and precise printing of dental restorations such as crowns or bridges. With just a few measurements, dentists can customize dental restorations according to the patient's needs, reducing subsequent adjustments. This lowers costs and provides a clear competitive advantage.
Surgical Implants and Plastic Surgery
Additive manufacturing holds significant potential in the field of facial reconstruction, for example, after accidents or tumor removal. Personalized facial implants require complex geometries, and using advanced additive manufacturing systems enables cost-effective production and fast delivery. This benefits both doctors and patients by providing excellent treatment outcomes.
1. Laser Cutting
Laser cutting is used to precisely cut medical components and devices from materials such as metals, plastics, or ceramics. The focused laser beam melts or vaporizes the material along the desired cutting path, creating clean and accurate cuts.
2. Laser Welding
Laser welding is utilized for joining medical device components together. The laser beam generates heat, which melts the material and forms a strong bond when the molten material solidifies. Laser welding offers precise control over the welding process, resulting in high-quality and reliable joints.
3. Laser Marking
Laser marking is employed to engrave or etch identification marks, labels, or instructions on medical products. The laser beam modifies the surface of the material, creating permanent and high-contrast markings without compromising the product's integrity.
Laser additive manufacturing, also known as 3D printing, is utilized to fabricate medical components and implants with complex geometries. Layer by layer, the laser selectively melts powdered materials, building up the desired object with high precision and customization.
5. Laser Surface Texturing
Laser surface texturing is used to modify the surface properties of medical products. By creating specific patterns or textures on the surface, laser technology can enhance biocompatibility, cell adhesion, and other desired characteristics.
CNC Stethoscopes
