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Overview of Tanaka Laser Cutting Machine

A Tanaka laser cutting machine in action, precision cutting materials with high-speed efficiency

Our Tanaka Laser Cutting Machine is a powerful tool for high-speed cutting. Using advanced laser technology, it ensures precision and efficiency.

Key Features

  • Fiber Laser: Known for its high efficiency and lower maintenance.
  • CO2 Laser: Ideal for cutting thicker materials.
  • Oscillator: Provides stable laser beam quality.

Performance

These machines can handle a variety of materials from metals to plastics. High-speed cutting with the Tanaka Laser reduces processing times.

Applications

  • Automotive: Precision parts manufacturing.
  • Electronics: Cutting small, delicate components.
  • Manufacturing: General production and prototyping.

The Tanaka machines are engineered for reliability. This makes them a preferred choice for various industries needing precise cutting.

Specifications

TypeFiber LaserCO2 Laser
Power OutputUp to 10 kWUp to 5 kW
Cutting SpeedVery HighHigh
MaintenanceLowModerate

Using the right laser type ensures optimal performance for specific tasks. Our machines come equipped with advanced safety features to protect operators.

Essentials of High-Speed Laser Cutting

A Tanaka laser cutting machine swiftly slices through metal sheets with precision, emitting a bright beam of light and producing intricate patterns

High-speed laser cutting involves various factors like cutting speed, laser power, and cut quality. Recognizing these elements is key to achieving precise and efficient results.

Cutting Speed and Precision

Cutting speed is crucial for efficiency. Faster speeds mean quicker production, yet speed must balance with precision. If the laser moves too fast, precision drops, affecting the quality of the cut.

For example, kerf width—the width of the cut—can widen if speed is too high. Ensuring the right balance between speed and precision means meeting specific requirements without compromising accuracy. Our goal is always to achieve optimal cutting speed while maintaining accuracy and precision.

Influence of Laser Power and Type

Different lasers come in various power levels and types. Laser power determines the material’s ability to be cut effectively. High power lasers can cut through thicker materials, but more power doesn’t always mean better results. It can affect cut quality if not managed accurately.

We use different types of lasers depending on the material—CO2 lasers for non-metals and fiber lasers for metals. Knowing which laser type and power level to use for specific tasks is crucial for optimal performance. We pay attention to the center of gravity and power density to ensure the cutting is effective and precise.

Cut Quality and Cutting Parameters

Several cutting parameters impact the final quality of the cut. Factors like laser power, speed, and kerf width need constant adjustment to ensure quality. Cut quality includes evaluating parameters like edge smoothness, the absence of burrs, and minimum material thermal impact.

Precise control over cut parameters ensures high cut quality. It’s important to set proper laser power and speed to achieve the desired result. The overall cut quality greatly depends on the correct cutting parameters and understanding how they interact during the cutting process.

Practical Applications in Industry

The Tanaka laser cutting machine slices through metal with precision, sparks flying as it swiftly shapes industrial parts

Tanaka Laser Cutting Machines are transforming a range of industries with their high-speed and precision capabilities. They are vital in manufacturing and automotive sectors, and are also paving the way for innovations in medicine and communications.

Manufacturing and Automotive Sectors

In manufacturing, Tanaka Laser Cutting Machines are used for precise and efficient metal cutting. They aid in the production of machinery parts with minimal waste. These machines are ideal for automation due to their high-speed and non-contact cutting methods.

In the automotive industry, laser cutting is used to create intricate parts and components. It’s valuable for producing customized car parts and improving production line efficiency. This precision helps in making lighter and stronger materials, enhancing vehicle performance and safety.

Innovations in Medicine and Communications

In medicine, these laser cutting machines are used for delicate tasks like creating medical instruments and implants. Their non-contact feature reduces the risk of contamination, making them ideal for surgical tools and devices.

For communications, high-speed cutting is used in manufacturing fiber optic components. Laser precision allows for the robust and efficient production of tiny and complex parts, which are crucial for high-speed data transmission. Our use of these lasers helps maintain the quality and reliability of communication systems.

Materials and Efficiency Considerations

We discuss how the Tanaka Laser Cutting Machine excels with various materials and boosts processing speed. We also present experimental findings, especially on cutting thick plates.

Handling Diverse Materials

The Tanaka Laser Cutting Machine handles a wide range of materials efficiently. This includes mild steel, stainless steel, aluminum, and alloys.

For mild steel, we achieve clean cuts with minimal dross. Stainless steel and aluminum also cut smoothly, thanks to precise laser controls. Different settings ensure optimal performance for each material.

Proper material selection and machine settings are crucial. Incorrect settings can reduce cut quality, increase wear, and affect efficiency. Therefore, we recommend regular maintenance and calibration for best results.

Enhancing Processing Efficiency

The machine’s high-speed capabilities improve processing efficiency notably. Adjusting the laser power and cutting speed lets us tailor processes for varied thicknesses. For thin sheets, fast cutting speeds minimize cycle times.

For thicker plates, we use slower speeds to ensure precise, deep cuts. Enhanced software features like automatic nesting maximize material use and reduce waste. Operating with optimized settings lowers energy consumption and increases overall productivity.

Operators can also use multi-layer cutting techniques. This approach further reduces processing time and boosts output without compromising on quality.

Experimental Results and Thick Plate Performance

Our experimental results show the Tanaka Laser Cutting Machine excels with thick plates. For example, cutting thick plate (over 25mm), yields remarkable precision. Edges are smooth, with little to no need for post-cut processing.

The machine’s robust design allows for consistent performance over extended periods. We found the best results when combining high power settings with appropriate cooling methods. Stability in output is observed even with repeated runs.

In tests, cutting speeds remain competitive compared to other machines. Our data confirm both high accuracy and efficiency, making this an ideal choice for industries requiring thick plate processing.

Advantages and Versatility of Tanaka Cutting Systems

Tanaka cutting systems offer many benefits for our industrial needs. One major advantage is their cost-effectiveness. These machines tend to have lower operational costs compared to traditional methods.

Another key feature is their versatility. Tanaka systems can handle various materials such as plasma, bars, and other metals. This makes them ideal for different industrial applications.

We also appreciate the precision of Tanaka cutting machines. The high-speed capabilities allow for clean and accurate cuts, which is crucial for the quality of our products.

Highlighted Features

  • Cost-effective: Lower maintenance and operational costs.
  • Versatile: Suitable for different materials and applications.
  • Accurate: High precision in cutting, improving product quality.

In addition to precision, these machines also enhance productivity. Due to their speed, more work can be done in less time, which makes projects more efficient.

Tanaka cutting systems also integrate advanced technology, making them reliable and easy to use. This technology supports various cutting methods, including plasma cutting, ensuring we get the best results.

Overall, the design of these cutting machines allows us to perform a wide range of cutting tasks with increased reliability and efficiency. The ability to cut through different materials effortlessly gives us more flexibility in our work.

Our experience with Tanaka cutting systems has shown that they are an excellent choice for both small-scale and large-scale industrial projects.

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