Ermaksan Fibermak Compact 2000W Fiber Laser
The Ermaksan Fibermak Compact 2000W is a flatbed fiber laser suited to light-gauge fabrication, thin sheet metal, and high-wattage electronics prototyping, where fast cutting speeds and clean edges on thin materials are the main priorities.
Overview
- Flatbed fiber laser configured for thin sheet metal and light-gauge fabrication work.
- 2000W (2 kW) fiber laser power, typically optimized for fast cutting in thin materials rather than heavy plate.
- Well-suited to prototyping and short-run production where quick changeovers and precision are important.
- Supports applications in high-wattage electronics, brackets, small enclosures, and light structural components.
- Compact form factor compared with larger plate-processing systems, aimed at shops with limited floor space.
- Intended for users needing a balance of cut quality, speed, and relatively moderate capital cost versus higher-wattage systems.
Typical Cost Ranges
- Pricing estimate (USD): $220,000 – $360,000 USD, depending on options, table size, and automation level.
- Lower end of the range typically aligns with simpler configurations (basic table, minimal automation, standard safety enclosure).
- Higher end of the range usually reflects added options such as larger bed size, better dust/fume extraction, upgraded software, or material handling aids.
- Operating costs will include electrical power, assist gas (oxygen, nitrogen, or air), lenses/nozzles/consumables, and routine maintenance.
- Budgeting should also account for installation, training, and any required shop modifications (power supply, ventilation, floor space).
Performance / Spec Considerations
- Laser power and material thickness: 2000W fiber output is typically focused on efficient cutting of thin sheet metal and light-gauge materials; verify recommended maximum thickness for the alloys you process most.
- Table size and work envelope: Confirm the flatbed dimensions match your common sheet sizes (e.g., whether you need full-size sheet capability or a more compact bed for smaller parts and prototypes).
- Cut quality vs. speed: For electronics and prototype work, edge quality, small feature accuracy, and minimal heat-affected zone are often more important than maximum throughput; verify achievable tolerances and smallest feature size.
- Assist gas requirements: Determine the machine’s assist gas types and pressures (nitrogen/oxygen/air) and ensure your facility can supply them consistently for thin-gauge cutting.
- Motion system and accuracy: Check positioning accuracy and repeatability figures to ensure they meet your needs for fine, detailed components and tight-fitting assemblies.
- Software and nesting capability: For prototyping and light fabrication, flexible CAD/CAM integration, fast programming, and efficient nesting are important to minimize setup time and material waste.
- Safety and extraction: Confirm that the enclosure, interlocks, and fume/dust extraction are suitable for continuous operation with thin sheet metals and the types of coatings/finishes you cut.
Buying Advice
- Verify the machine’s recommended and practical maximum thicknesses for the specific materials (steel, stainless, aluminum, etc.) you intend to cut most often.
- Inspect the flatbed and motion components for wear, damage, or contamination that could affect accuracy and surface finish.
- Check the condition of the laser source, optics (lenses, protective windows), and nozzles; ask for service/maintenance records if used.
- Review sample cut parts made on the same model (ideally on your material) to evaluate edge quality, hole accuracy, and small feature performance.
- Confirm that the table size, machine footprint, and required clearances fit your available floor space and material-handling layout.
- Evaluate the control interface and software workflow to ensure it integrates well with your existing CAD/CAM systems and operator skill levels.
- Ask about typical consumable usage (nozzles, lenses, filters) and recommended maintenance intervals to understand ongoing operating costs.
- Clarify electrical, assist gas, and ventilation requirements and verify your facility can support them without major upgrades.
- Request training and support details, including availability of remote support, spare parts lead times, and any included commissioning services.
- Confirm warranty terms and what is covered for the laser source, motion system, and control electronics, especially for high-hour usage.
Buyer Questions
What is this machine best suited for? It is oriented toward light-gauge fabrication, thin sheet metal, and prototyping, particularly for high-wattage electronics and small fabricated components.
How does 2000W compare to higher-wattage lasers? 2000W is generally optimized for thin materials; higher-wattage systems can cut thicker plate faster but come with higher capital and operating costs.
Can it handle production as well as prototypes? Yes, provided your work is mainly thin sheet and light-gauge parts; it can serve both prototyping and small- to medium-batch production runs.
What materials can typically be cut? Fiber lasers in this class are commonly used on steels, stainless steels, and aluminum in thin gauges; confirm exact material limits with the seller.
Is it suitable for very small, detailed parts? Flatbed fiber lasers at this power level are often used for fine features and detailed profiles, but you should review sample cuts to verify they meet your tolerances.
What facility services are required? You will need adequate electrical power, appropriate assist gas supply, and suitable ventilation or fume extraction compatible with the machine’s specifications.
How important is table size for this model? Table size determines the maximum sheet format you can process; choose a size aligned with your typical sheet dimensions and part nesting strategies.
What should I look for on a used unit? Focus on laser source hours, optics condition, motion system backlash or wear, maintenance history, and overall cleanliness of the cutting area.
Are software upgrades important? Modern nesting and control software can significantly improve material utilization and setup time, which is especially valuable for prototyping and short runs.
How do I estimate total cost of ownership? Combine purchase price with installation, training, assist gas, power consumption, consumables, routine maintenance, and any planned upgrades over the machine’s life.
Source: Ermaksan Fibermak Compact 2000W Fiber Laser
Ermaksan Fibermak Compact 2000W Fiber Laser