| Model | AKJ1530F | AKJ1545F | AKJ1560F | AKJ2030F | AKJ2040F | AKJ2060F | AKJ2560F |
|---|---|---|---|---|---|---|---|
| Cutting Range | 1500*3000mm | 1500*4500mm | 1500*6000mm | 2000*3000mm | 2000*4000mm | 2000*6000mm | 2500*6000mm |
| Laser Power | 1500-40000W | ||||||
| Laser Generator | Raycus/Max/IPG | ||||||
| Control System | Au3tech/Cypcut | ||||||
| Laser Cutting Head | Au3tech/Raytools/Boci | ||||||
| Transmission System | Rack Drive | ||||||
| Rack | VASTUN/Apex/YYC | ||||||
| Guide Rail | HIWIN | ||||||
| Gear Reducer | Motoreducer | ||||||
| Ball Screw | TBI | ||||||
| Servo Motor | Delta/Yaskawa | ||||||
| Electronic Components | Schneider | ||||||
| Pneumatic Components | SMC/AirTAC | ||||||
| Water Chiller | S&A/Hanli | ||||||
| Maximum Moving Speed | 100m/min | ||||||
| Maximum Acceleration | 1.0G | ||||||
| Positioning Accuracy | ±0.01mm | ||||||
| Repeat Positioning Accuracy | ±0.03mm | ||||||
| Voltage and Frequency | 380V 50Hz/60HZ | ||||||
| Comparison Item | Laser Cutting | Plasma Cutting | Waterjet Cutting | Mechanical Cutting |
|---|---|---|---|---|
| Cutting Principle | Uses a focused laser beam to melt and cut titanium | Uses a plasma arc to melt conductive metal | Uses high-pressure water and abrasive to erode material | Uses saws, milling tools, drills, shears, or blades |
| Material Suitability | Suitable for titanium sheets, plates, and precision parts | Can cut titanium, but quality control is harder | Suitable for titanium and many other materials | Suitable, but titanium is difficult to machine |
| Cutting Precision | High precision for complex titanium parts | Medium precision | High precision, but slower | Medium precision, depends on tooling and setup |
| Edge Quality | Clean edges with minimal burrs when parameters are optimized | Rougher edges with more dross | Smooth, cold-cut edges | May leave burrs, tool marks, or chatter marks |
| Heat-Affected Zone | Small heat-affected zone with proper process control | Larger heat-affected zone | No heat-affected zone | Minimal heat, but tool friction may generate heat |
| Oxidation Risk | Requires proper assist gas to reduce oxidation | Higher risk of oxidation and discoloration | No thermal oxidation | Possible surface discoloration from friction heat |
| Cutting Speed | Fast for thin and medium titanium sheets | Fast for rough cutting | Slower than laser and plasma | Moderate, often slow for complex shapes |
| Thin Sheet Performance | Excellent for thin titanium sheets and fine contours | May cause warping or rough edges | Good, but less efficient | Possible, but thin sheets may deform under force |
| Thick Plate Performance | Requires suitable laser power and stable parameters | Can cut thick titanium, but edge quality may vary | Good for thick titanium plates | Limited by tool wear, force, and machine rigidity |
| Kerf Width | Narrow kerf, saving expensive titanium material | Wider kerf | Medium kerf | Usually wider than laser cutting |
| Material Waste | Low waste due to narrow cutting path | Higher waste than laser | Moderate waste from kerf and abrasive use | Higher waste from chips and tool path |
| Burr Formation | Minimal burrs with proper settings | More dross and edge cleanup needed | Minimal burrs | Burrs are common |
| Thermal Deformation | Low with optimized parameters | Higher risk due to heat input | No thermal deformation | Possible bending or stress from cutting force |
| Surface Finish | Maintains a clean, accurate titanium surface | May cause rough edges and heat discoloration | Preserves original surface well | May scratch, mark, or harden the edge |
| Secondary Processing | Often little deburring or polishing needed | Often requires grinding and oxide removal | Usually little secondary processing | Often requires deburring, polishing, or edge finishing |
| Complex Shape Cutting | Excellent for holes, slots, curves, medical parts, and aerospace profiles | Good for simple and medium-complex shapes | Good for complex shapes, but slower | Limited for intricate designs |
| Automation Capability | Highly suitable for CNC automation and repeatable batch production | Suitable for CNC cutting | Suitable for CNC cutting | Automation possible, but tool changes may be needed |
| Tool Wear | No physical cutting tool contacts the titanium | Electrode and nozzle wear | Nozzle wear and abrasive consumption | High tool wear because titanium is difficult to machine |
| Best Use Cases | Aerospace parts, medical implants, marine parts, chemical equipment, precision titanium components | Rough cutting of conductive titanium plates | Thick titanium plates or heat-sensitive applications | Straight cuts, drilling, milling, sawing, and low-volume work |
| Overall Advantage | Best balance of precision, speed, automation, edge quality, and material savings | Good for rough cutting where precision is less important | Best when cold cutting and no heat effect are required | Good for simple shapes but less efficient for complex titanium cutting |
AccTek Laser integrates advanced laser technology into its cutting machines to deliver high precision, stable performance, and efficient cutting results. Their systems use reliable laser sources and optimized control systems, ensuring that operators achieve consistent cuts with minimal material waste. This innovation also helps in enhancing material quality while reducing the risk of thermal damage during the cutting process.
AccTek Laser offers a broad selection of laser cutting machines with different power levels and configurations to suit diverse application requirements. Customers can choose from compact, portable systems for small-scale operations to large industrial machines for high-volume cutting tasks. This makes it easy to find the right solution for cutting metal sheets, plastics, ceramics, and more, ensuring versatility for various industries.
AccTek Laser machines are built using top-quality components sourced from globally recognized suppliers. This includes durable laser sources, cutting-edge scanning systems, and reliable control electronics. By using premium parts, AccTek Laser enhances machine stability, extends service life, and ensures consistent performance under demanding operating conditions, ultimately reducing maintenance needs.
AccTek Laser provides flexible customization options to meet specific customer needs. Machine features like laser power, cutting speed, cooling systems, and automation integration can be tailored to suit different production environments and application requirements. This flexibility ensures that customers achieve optimal cutting performance, productivity, and cost-efficiency.
AccTek Laser offers comprehensive technical support throughout the entire purchase and operation process. Their experienced team assists with machine selection, installation, operation training, and troubleshooting. This level of support helps customers seamlessly adapt to laser cutting technology, ensuring smooth operations and quick issue resolution when necessary.
With years of experience serving customers globally, AccTek Laser provides dependable international service and support. They offer detailed documentation, remote assistance, and responsive after-sales service to help customers maintain their machines and minimize downtime. This ensures that customers can continue their operations with minimal disruptions, enhancing long-term productivity and customer satisfaction.
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This article explores the various factors that contribute to the operating costs of laser cutting machines, including energy consumption, materials, labor, maintenance, and technological advancements.
Titanium laser-cutting machines use high-powered lasers to precisely cut through titanium sheets or components. Here’s a breakdown of the process:
By combining precision engineering with advanced laser technology, titanium laser-cutting machines enable efficient, high-quality cutting for even the most complex designs.
Titanium laser-cutting machines are available in a wide range of power levels to accommodate various cutting requirements. Each power level is suited for specific applications based on the thickness of the material, cutting speed, and edge quality desired. Here are the commonly available power levels:
These power levels provide flexibility for manufacturers and fabricators, enabling them to select the optimal machine based on their specific requirements for thickness, production volume, and edge quality.
The cost of titanium laser-cutting machines can vary significantly depending on various factors such as the type of machine, power output, precision, brand, and additional features. Here’s a breakdown of the typical price range:
If you have specific requirements for your titanium-cutting operations, the upfront investment can vary significantly. It’s worth consulting vendors to match the machine specifications to your application needs.
In titanium laser-cutting, the choice of assist gas plays a crucial role in achieving the desired cut quality, efficiency, and finish. The most commonly used assist gases are nitrogen (N2), argon (Ar), and oxygen (O2). Each gas serves a specific purpose and is selected based on the cutting application and the material’s requirements.
In general, for titanium laser-cutting, nitrogen, and argon are preferred for producing clean, high-quality cuts with minimal oxidation. Oxygen is a practical choice for enhancing cutting speed in less demanding scenarios. The selection of assist gas should align with the specific requirements of the project, taking into account factors such as material thickness, desired finish, and post-cut processing needs.
The maximum thickness a titanium laser-cutting machine can handle depends on factors such as the machine’s laser power, the type of laser used, the cutting speed, and the assist gas employed. Typically, titanium laser-cutting machines can cut titanium sheets ranging from thin foils to thicker plates. Here’s a breakdown:
Titanium laser-cutting machines can typically handle thicknesses up to 20-50 mm, depending on the machine’s power and configuration. For standard industrial needs, machines with medium power can cut up to 10-12 mm, while specialized high-powered machines are required for thicker materials. Choosing the right machine and settings is critical for balancing efficiency, quality, and cost in titanium-cutting operations.
Maintaining titanium laser-cutting machines is essential for ensuring consistent performance, prolonged lifespan, and precise cutting results. These machines involve advanced technologies, and their maintenance includes regular inspections, cleaning, calibration, and component replacements. Below are the key maintenance requirements for these machines:
Routine maintenance of titanium laser-cutting machines involves cleaning, checking components, calibrating systems, and performing scheduled inspections. Proactive care minimizes downtime, enhances precision, and prolongs the machine’s lifespan. Following the manufacturer’s maintenance schedule and guidelines is crucial to achieving optimal cutting performance.
Our laser-cutting machine is backed by a comprehensive warranty designed to give you peace of mind and protect your investment:
Please note that this warranty excludes damage resulting from improper use, mishandling, or other artificial causes.
Our laser-cutting machine is certified with internationally recognized standards to ensure quality, safety, and compliance with industry requirements.
If additional certifications are required for specific regions or industries, please let us know, and we can provide further information.
4 reviews for Titanium Laser Cutting Machine
Michael –
This machine has helped improve efficiency in our fabrication shop. The cutting speed is faster compared to our previous equipment, and the results are more consistent. The aluminum beam design allows quick movement without affecting accuracy. The machine remains stable during operation, thanks to its solid base. The control system is easy for operators to learn, which reduces training time. It also performs well during continuous use without unexpected downtime. Overall, it’s a dependable machine that supports both productivity and quality in our daily operations.
Emily –
This machine has made my work more efficient and predictable. It runs consistently, which helps us maintain a steady production pace. The cutting quality is reliable, and we rarely need to redo parts. The system is easy to operate, and I was able to learn it quickly. It also handles different materials without much adjustment. The machine stays stable during operation, even at higher speeds. Overall, it’s a dependable solution that supports our production goals.
Abigail –
As a designer, I need a machine that can handle detailed work, and this one performs well in that area. The cuts are precise, and the edges are smooth, even on thin materials. The laser head maintains good focus, which helps avoid defects. I also appreciate how easy it is to adjust parameters when switching designs. The machine runs quietly and feels stable during operation. It produces consistent results, which is important for design work. Overall, it’s a useful tool that supports both creativity and accuracy in my projects.
William –
I’ve been operating this machine in our plant for a few months, and it has been reliable so far. The controls are simple, and I can set up jobs without much difficulty. It runs smoothly, and there’s very little vibration during cutting. The results are consistent, and the edges are clean. It also handles long shifts without any problems. Maintenance has been minimal, which helps reduce downtime. Overall, it’s a solid machine that performs well in a busy production environment.