Next Gen Metalworking: Unleashing the Power of 3D Laser Cutting

Sárga színű, egymásra helyezett papírok, amelyek egy 3D lézervágási ötletet mutatnak.

The world of metalworking is undergoing a rapid transformation, thanks to the latest advancements in laser technology. 3D laser cutting and engraving not only open up new dimensions in design and manufacturing but also significantly enhance efficiency and precision. But what exactly is 3D laser cutting, and how is it reshaping the industry?

Background and History:

Laser cutting has been a part of metalworking for decades, but continuous technological advancements have brought new possibilities. Initially, 2D laser cutting was primarily used for cutting flat metal sheets. However, with the advent of 3D laser cutting, machines can now precisely cut and engrave complex, three-dimensional shapes.

Innovations and New Technologies:

The foundation of 3D laser cutting and engraving lies in advanced software control and multi-axis movement. The latest machines can cut metal sheets from multiple angles and directions, allowing for the creation of intricate, spatial forms. In the field of engraving, significant advancements have made it possible to easily achieve fine details and complex patterns.

3d Laser cutting applied to automotive component manufacturing using a 5-axis laser machine.
Image source: HSG Laser

Practical Applications of 3D Laser Cutting:

3D laser cutting and engraving prove beneficial across various industries, offering numerous advantages in manufacturing and design. Let’s take a closer look at how this technology is applied in different sectors:

Automotive Industry:

The production of more complex parts has become significantly simpler and faster thanks to 3D laser cutting. In the automotive industry, precision cutting of complex body components, chassis, and engine parts is crucial for enhancing vehicle performance and safety. Additionally, 3D engraving allows manufacturers to create unique identification markings, logos, and serial numbers on their products, enhancing traceability and brand differentiation.

Medical Technology:

In the production of medical devices, precision cuts and engravings enable the creation of customized solutions. For example, in the manufacturing of prosthetics and implants, 3D laser cutting allows for the production of components precisely tailored to individual anatomical specifications. Engraving on surgical instruments ensures durable markings that remain readable even after sterilization.

Aerospace Industry:

In the aerospace industry, the application of laser cutting and engraving is crucial for achieving high precision and reliability. Aircraft components, such as wings, fuselages, and engine parts, must meet strict quality and safety standards. 3D laser cutting allows for the precise cutting of complex shapes and structures, minimizing the potential for errors and increasing manufacturing efficiency.

Architecture and Design:

In architecture and design, 3D laser cutting and engraving open up new horizons. The technology enables the creation of intricate, unique patterns and structures that were previously unimaginable. Facades, interior elements, furniture, and decorations can all benefit from precision cuts and detailed engravings, enhancing both aesthetic value and functionality.

Electronics Industry:

In the electronics industry, the precise cutting and engraving of miniature components are essential for producing high-quality products. During the manufacture of printed circuit boards (PCBs), micro-switches, and other small parts, the accuracy of 3D laser cutting ensures that final products meet stringent technological requirements. Additionally, laser engraving provides durable and accurate markings on components, facilitating easy identification and assembly.

Art and Craft:

In the art and craft sector, 3D laser cutting and engraving offer artists the opportunity to create intricate and detailed works. Cutting and engraving materials such as metal, wood, plastic, and others allow for the creation of unique jewelry, decorative items, and artistic installations with exceptional aesthetic value.

Pros and Cons of 3D Laser Cutting:


  1. Wide Range of Shape Cutting: 3D laser cutting allows for the cutting of various and complex shapes that would be difficult to achieve with traditional methods.
  2. High Cutting Accuracy: Like fiber-optic cutting machines, 3D laser cutters work with exceptional precision, resulting in highly accurate and clean cuts.
  3. Replacement of Traditional Sheet Cutting Processes: 3D laser cutting is easy to operate and fast, making it a viable replacement for traditional, more complex sheet cutting processes, significantly increasing efficiency.
  4. High Production Efficiency: The fast cutting speed and ease of operation result in significant time and cost savings, enhancing production efficiency.
  5. Non-Contact, Noise-Free, and Wear-Free: 3D five-axis laser cutters provide non-contact cutting, resulting in a noise-free and wear-free process, which extends the lifespan of the tools and creates a quieter work environment.


  1. High Initial Investment Costs: Acquiring 3D laser cutting machines and the associated technology requires significant financial investment.
  2. Need for Technological Expertise: Learning the new technology and mastering the operation of the machines can be time and resource-intensive.
  3. Maintenance Requirements: Although laser cutters wear less than traditional tools, maintenance and potential repairs still require specialized expertise.
  4. Energy Consumption: 3D laser cutting machines operate with high energy consumption, which can lead to significant long-term costs.

Conclusion on 3D Laser Cutting Technology:

3D laser cutting and engraving are revolutionizing metalworking, opening new possibilities in design and manufacturing. As technology continues to advance, more industries will recognize its potential. Discover this exciting new world for yourself and draw inspiration from the latest innovations!

Watch a demonstration of 3D laser cutting with a five-axis solution:

With this blog post, we aim to inspire and inform our readers about the latest laser cutting technologies and help navigate the world of metalworking. We hope you are as excited about future developments as we are!


New Plate Processing Technologies: the Foundations of the Industry of the Future

Sorjázási folyamat a lézervágás után aluminium és acél termékeknél.

The modern industry leverages various new technologies that enable more efficient and precise sheet metal processing. The use of aluminum welding, stainless steel sheet processing, laser cutting machines, and press brakes all contribute to faster, more accurate, and cost-effective manufacturing processes. In this article, we will introduce these technologies and their applications.

Aluminum Welding: Lightweight and Durable Solutions

Aluminum welding is one of the most popular methods for creating lightweight yet strong structures. Aluminum is especially important in the aerospace, automotive, and construction industries due to its lightweight and excellent corrosion resistance. The welding process requires special techniques and materials because aluminum’s thermal conductivity and melting point differ from traditional steel. For instance, TIG welding with argon gas shielding produces high-quality, solid joints.

Stainless Steel Sheets: Corrosion-Resistant and Durable Materials

Stainless steel sheets are used in environments with a high risk of corrosion. These sheets are highly resistant to various chemicals, making them popular in the food industry, chemical industry, and pharmaceutical industry. Their processing requires special tools and techniques, such as stainless steel welding materials and protective gases.

Laser Cutting Machines: Precision and Versatility

Laser cutting machines are the cornerstone of modern sheet metal processing. These machines allow for extremely precise cuts, which are crucial for intricate shapes and patterns. Laser cutting machines can process various materials, including metals, plastics, and wood. For example, Trumpf laser cutters are known for their high performance and reliability, enabling fast and efficient production.

Press Brakes: Precise and Powerful Bending

Press brakes are essential tools for shaping sheets. These machines can perform precise and powerful bends, which are crucial for producing various structures and components. CNC press brakes offer a significant advantage because their computer-controlled systems make the bending process fast and extremely accurate.

Deburring: Ensuring a Perfect Finish

Deburring is the final step in sheet metal processing, where sharp edges and burrs created during machining are removed. This not only improves the aesthetic appearance but also ensures the safe use of the workpiece. Deburring can be done using various methods, including mechanical, manual, and machine processes.

The metalworker is deburring with a corner grinder.
Fémdarabot csiszoló munkás

Energy Efficiency: The Key to Sustainable Manufacturing

In industrial production, energy efficiency is becoming increasingly important. The new generation of machines and technologies not only increases productivity but also reduces energy consumption. Integrating renewable energy sources and applying energy-efficient manufacturing processes help minimize environmental impacts and reduce production costs.

Automation: The Factories of the Future

Automation can significantly speed up and improve the accuracy of manufacturing processes. Robotic systems and IoT (Internet of Things) technologies enable the creation of intelligent manufacturing environments where machines and systems continuously communicate, optimizing production and reducing the possibility of human errors.

3D Printing: Innovation in Custom Manufacturing

3D printing has revolutionized prototype production and the manufacture of custom parts. This technology allows designers to quickly and cost-effectively create complex geometric shapes that are difficult or impossible to achieve with traditional manufacturing methods. 3D printing is applicable in many industries, including medical technology, aerospace, and automotive manufacturing.

Modern gyártás, egyedi gyártás a jövőben.

Artificial Intelligence: Optimizing Manufacturing

The application of artificial intelligence (AI) offers the potential to optimize manufacturing processes and increase efficiency. AI-based systems can analyze large amounts of data, make predictions, and support decision-making, improving production quality and reducing costs. Intelligent maintenance systems help predict and prevent machine failures, minimizing downtime.


Modern sheet metal processing technologies have significantly transformed industrial production. Aluminum welding, stainless steel sheet processing, laser cutting machines, and press brakes all contribute to faster, more accurate, and cost-effective manufacturing processes. These innovations not only increase productivity but also improve the quality of the final product, ensuring competitive market positions for companies. The application of energy efficiency, automation, 3D printing, and artificial intelligence further strengthens the foundations of the future industry, promoting the spread of sustainable and innovative manufacturing solutions.

How accurate is laser cutting?

laserschneiden im klein

Laser cutting is an efficient and precise technology for machining sheet metal. By directing the laser beam onto the surface of the workpiece, a precise and regular cutting surface can be created. The focus of this article is on the accuracy of laser cutting.

The accuracy of laser cutting depends on several factors

Here are some of these factors:

Type of laser generator

CO2 Lasers: Masters of Precision for Thin Materials

Wavelength Matters: CO2 lasers operate at a wavelength of around 10.6 micrometers. This wavelength is longer compared to fiber lasers but offers a key advantage for thin materials. Because the wavelength is closer to the size of some microscopic features on the material’s surface, the CO2 laser beam interacts more uniformly. This translates to a tighter focus point, enabling precise cutting of intricate details and thin sheets.

Source Princeton University

Lower Power, Less Heat Impact: CO2 lasers typically have lower power outputs compared to fiber lasers. This might seem like a disadvantage, but for thin materials, it’s a benefit. Lower power minimizes heat input into the material. This reduces melting around the cut edge, resulting in a cleaner, narrower kerf width (the width of the material removed by the laser). This is crucial for maintaining precise dimensions, especially in delicate applications.

Fiber Lasers: Powerhouses for Thick Materials

Short Wavelength, High Power: Fiber lasers boast a much shorter wavelength, typically around 1.06 micrometers. This shorter wavelength allows for deeper penetration into the material. Additionally, fiber lasers pack a much higher power punch than CO2 lasers. This combination makes them ideal for cutting through thicker materials like mild steel or stainless steel.

Beam Quality and Cutting Speed: Fiber lasers deliver a superior beam quality, meaning the light is more concentrated and focused. This, along with the high power, translates to faster cutting speeds, especially for thicker materials. Faster cutting speeds minimize the time the laser interacts with the material, reducing heat distortion and maintaining cutting accuracy.

The Unsung Heroes of Precision: Lenses, Alignment, and Self-Calibration in Laser Cutting

The ability of a laser cutting system to achieve micron-level precision hinges not just on the raw power of the laser itself, but also on the intricate interplay between the focusing elements and their ongoing maintenance. Here’s how lens quality, alignment, and self-calibration systems all play a crucial role in determining focus point size and ultimately, cutting accuracy:

1. Lens Quality: The Sharper the Focus, the Cleaner the Cut

  • Flawless Optics: High-quality lenses are manufactured with exceptional surface finish and minimal imperfections. These imperfections, even microscopic ones, can scatter the laser beam, affecting its collimation (how tightly focused the beam is). A scattered beam translates to a larger focus point, leading to a wider kerf width and reduced cutting accuracy.
  • Material Matters: The choice of lens material also impacts performance. Lenses are typically made from zinc selenide (ZnSe) or germanium (Ge) for CO2 lasers and special optical fibers for fiber lasers. These materials are chosen for their ability to transmit the laser wavelength efficiently with minimal distortion.

2. Precise Alignment: Keeping Everything in Focus

  • Mirror, Mirror on the Wall: A laser cutting system utilizes a series of mirrors to direct the laser beam towards the focusing lens. Even slight misalignments in these mirrors can significantly affect the beam path, causing it to deviate from the optimal focus point. This results in a larger focal spot and compromised cutting accuracy.
  • Alignment Procedures: To ensure optimal performance, laser cutting systems undergo rigorous alignment procedures during setup and periodically throughout operation. These procedures involve fine-tuning the position of the mirrors using specialized tools and lasers to achieve the most focused beam path.

3. Self-Calibration Systems: Constant Vigilance for Peak Performance

  • The Ever-Shifting Landscape: Over time, factors like thermal expansion and mechanical vibrations can cause slight misalignments within the optical system. These misalignments, if left unchecked, can gradually degrade cutting accuracy.
  • Automated Adjustments: Modern laser cutting systems often incorporate self-calibration systems. These systems use sensors and feedback loops to constantly monitor the laser beam path. If any deviations are detected, the system automatically adjusts the mirrors to realign the beam and maintain the optimal focus point. This ensures consistent cutting accuracy over extended periods of operation.
Source Heriott Watt University

The Invisible Ballet: Encoders and Algorithms for Flawless Laser Head Movement

The pinpoint accuracy of laser cutting extends beyond the laser itself. Behind the scenes, a captivating dance unfolds between high-resolution encoders and sophisticated control algorithms, ensuring the laser head traverses the cutting path with unmatched precision.

High-Resolution Encoders: The Eyes of the Machine

  • The Art of Measurement: Encoders are the unsung heroes of precise motion control. They act as the eyes of the machine, continuously monitoring the position of the laser head. These encoders convert the physical movement of the head into precise digital signals.
  • Resolution Matters: The key to achieving micron-level accuracy lies in the resolution of the encoders. High-resolution encoders boast a large number of lines or pulses per unit of travel (often thousands of lines per millimeter). This allows for incredibly fine-grained measurement of the laser head’s position.

Sophisticated Control Algorithms: The Master Conductor

  • Translating Signals into Action: The control algorithms within the laser cutting system receive the digital signals from the encoders. These algorithms are complex mathematical programs specifically designed to interpret the position data and translate it into precise movement commands for the motors driving the laser head.
  • The Art of Control: Sophisticated algorithms not only account for the current position of the laser head but also factor in factors like desired cutting path, speed, and acceleration. This ensures smooth and controlled movement along the cutting path, minimizing vibrations that could impact cut quality.
  • Advanced Techniques for Even Greater Precision: Modern control algorithms may incorporate additional features like:
    • Feedforward Control: Anticipates future movements and adjusts motor commands in advance, resulting in smoother and more accurate cuts.
    • Path Correction: Real-time analysis of encoder data allows for minor adjustments to the cutting path, compensating for any potential deviations.

The Symbiotic Relationship:

High-resolution encoders provide the precise position data, while sophisticated control algorithms translate it into flawless movement. This symbiotic relationship allows the laser head to navigate even the most intricate cutting paths with pinpoint accuracy. This precision is crucial for achieving clean cuts with minimal heat distortion and maintaining consistent part dimensions, especially in applications with tight tolerances.

Investing in Performance:

Laser cutting systems equipped with high-resolution encoders and advanced control algorithms represent an investment in long-term performance. These features ensure consistent accuracy over time, minimizing scrap rates and maximizing production efficiency.

The Material Matters: How Material Properties Dance with Laser Cutting Accuracy

While laser cutting boasts impressive precision, achieving clean and accurate cuts hinges not just on the laser and machine settings, but also on the intrinsic properties of the material itself. Here’s how factors like reflectivity, thermal conductivity, and melting point influence cutting accuracy:

1. Reflectivity: A Balancing Act

  • Bouncing Back Trouble: Reflectivity refers to a material’s ability to reflect light. Highly reflective materials, like aluminum or some types of stainless steel, can reflect a significant portion of the laser beam away from the cutting zone. This reduces the effective power delivered to the material, potentially leading to incomplete cuts or ragged edges.
  • Balancing the Beam: To achieve clean cuts in highly reflective materials, adjustments to laser cutting parameters are often necessary. This might involve increasing the laser power to compensate for the reflected light or using a shorter wavelength laser (like fiber lasers) that are less susceptible to reflection by certain materials.

2. Thermal Conductivity: The Heat Diffuser

  • Spreading the Heat: Thermal conductivity refers to a material’s ability to conduct heat. Materials with high thermal conductivity, like copper or brass, readily disperse heat away from the cutting zone. This can make it challenging to achieve a clean cut because the laser energy may not be concentrated enough to melt and vaporize the material efficiently.
  • Fine-Tuning for Efficiency: For materials with high thermal conductivity, adjustments to cutting parameters are crucial. This might involve using a higher laser power or slower cutting speed to allow for more localized heating and a cleaner cut.

3. Melting Point: Finding the Sweet Spot

  • The Point of No Return: Melting point is the temperature at which a material transitions from a solid to a liquid state. For clean laser cutting, the laser beam needs to deliver enough energy to raise the material above its melting point and vaporize it in the cutting zone.
  • Precision Through Control: Materials with a very high melting point may require adjustments to laser parameters. This might involve using a higher power laser or employing a technique like pulsed cutting, which delivers short bursts of laser energy to minimize heat diffusion and achieve a cleaner cut.

The Material-Laser Tango:

These material properties create a dynamic interplay with the laser beam. Understanding how reflectivity, thermal conductivity, and melting point influence cutting behavior is crucial for optimizing laser cutting parameters and achieving clean, accurate cuts on various materials. Laser cutting specialists often rely on experience and experimentation to determine the optimal settings for different materials, ensuring the laser “dances” perfectly with the material to achieve the desired results.

In many cases, laser cutting machines can cut to a continuous accuracy of ±0.05-±0.2 mm (0.002-0.008 inches). This level of accuracy is critical for applications requiring complex design and tight tolerances.

In summary, achieving micron-level precision in laser cutting hinges on several factors:

  • Laser Characteristics: High-power lasers and high-quality optical systems create a tightly focused beam for precise cutting.
  • Motion Control: High-resolution encoders and sophisticated algorithms ensure the laser head traverses the cutting path with exceptional accuracy.
  • Material Selection: Materials with good laser absorption (like mild steel) and favorable properties (like lower melting point and lower thermal conductivity) generally offer better cutting accuracy.
  • Cutting Parameters: Thin workpieces and slower cutting speeds allow for more focused laser energy delivery, improving cut precision.

It’s important to note that while certain materials like aluminum and stainless steel can be laser cut accurately, their high reflectivity might necessitate

The accuracy of laser cutting therefore depends on a number of factors, but micron precision cuts can be achieved with the right settings and under the right conditions. Other resources on this topic include: How Precise Is Laser Cutting? – JTV Manufacturing, Inc. , How Accurate is Laser Cutting: Standard Laser Cutting Tolerances

At Ferolaser Kft. we use machinery from market-leading manufacturers, representing the most advances in development and the highest level of material quality. Besides, our machines are constantly maintained and subjected to daily checks to maintain precision. If you have any further questions or would like to get to know us better, please take a look at our website dedicated exclusively to laser cutting.

How do laser beams cut through things?

Lézervágás menete technológiai háttere lencsével rezonátorral és lézersugárral, valamint a vágási anyaggal.

Laser beams have an impressive ability to cut through metal, plastic, wood and even glass. But how is this possible? The answer lies in the unique properties of laser light.

Laser light is not just a beam of light, but a coherent beam of light. This means that photons of light have the same wavelength and phase and travel in the same direction. This coherence gives laser light its high energy density, which allows it to cut.

When a laser beam is focused on a material, the energy of the photons is transferred to the atoms of the material. This leads to a rise in temperature, which can cause the material to melt or evaporate. The exact way of cutting depends on the type of material and the parameters of the laser.

Cutting mechanisms for laser cutting

In laser cutting, metal sheets are cut by three main mechanisms: melting, evaporation and sublimation. The type of cutting mechanism depends on the type of material, the laser parameters (e.g. power, wavelength, focal point size) and the cutting conditions (e.g. type of assist gas and flow rate).


This is the most common cutting mechanism and is most suitable for cutting thicker metal sheets (e.g. steel, stainless steel). The energy of the laser beam locally heats the metal above the melting point, creating a molten metal bath. The circulation of cutting gas (e.g. oxygen, nitrogen) in the cutting zone removes the molten metal and helps prevent slag formation. The cutting speed depends on the laser power and the thickness of the metal sheets.


  • High cutting speed
  • Suitable for cutting thicker sheet metal
  • Relatively low cost


  • Minimum Heat Affected Zone (HAZ)
  • Slag formation possible
  • Not suitable for all metals


Evaporation is the cutting mechanism when the laser energy is sufficient to evaporate the metal in the cutting zone. This mechanism is suitable for cutting thinner sheets of metal (e.g. aluminium, copper) and results in a more precise cut than melting. The cutting speed depends on the laser power and the thickness of the metal sheets.


  • Precise cutting
  • Minimum HAZ
  • Smooth cutting surface
  • Reduced slag formation


  • Lower cutting speed
  • Suitable for cutting thinner sheet metal
  • Higher cost


Certain materials, such as wood and plastics, are directly sublimated, i.e. transformed from solid to vapour, when cut by laser. This cutting mechanism results in a precise and clean cut with minimal thermal impact. The cutting speed depends on the laser power and the type of material.


  • Precise and clean cut
  • Minimum HAZ
  • No slagging


  • Limited choice of materials
  • Lower cutting speed

The influence of cutting parameters:

Lézer típus és hullámhossz, zöld lézer, fiber lézer és co2 lézer

The quality and efficiency of laser cutting is affected by a number of parameters, including:

  • Laser power: Laser power affects cutting speed, depth of cut and cut quality.
  • Wavelength: the wavelength of the laser affects the interaction with the material and the cutting efficiency.
  • Focal point size: the size of the focal point affects the width of the cutting gap and the thermal effect zone.
  • Cutting speed: The cutting speed affects the cut quality and cutting costs.
  • Type and flow rate of assist gas: The type and flow rate of assist gas affects melt removal, cut quality and cutting costs.

Optimising the laser cutting parameters for the material and the desired cut quality is essential.

In summary

The laser beam cuts by increasing temperature: melting thicker metal (melting), vaporising thinner metal (vaporisation) and sublimating plastic. The cutting method depends on the material and the laser setting. Laser cutting is a precise, versatile and automated process that is essential in many industries.


Explore the creative possibilities of laser cutting!

Kreatív lézervágás cikkre színes figyelemfelhívó kép

Laser cutting: creative projects

Laser cutting is becoming an increasingly popular technology for creative projects. This is no coincidence, as it has many advantages over traditional cutting techniques. Lasers provide precise, clean and fast cuts, and can be used on almost any material. With laser cutting, you can create unique and stunning objects to decorate your home, make gifts for loved ones or even start your own business.

The benefits of laser cutting in creative projects:

  • Precision: the laser provides extremely precise cutting, so even the most delicate patterns can be produced. This allows you to create perfectly finished, professional-looking objects.
  • Cleanliness: no dust or dirt is generated during laser cutting, so the cutting edges remain smooth and clean. This is particularly important for decorative elements and jewellery. The exception to this is the diode laser, which can bring quite a lot of dirt with it, so it may be worth using a cleaning and extraction device separately.
  • Versatility: the laser can cut almost any material, including wood, plexiglass, paper, leather, textiles, foam board and more. This makes the creative possibilities almost endless.
  • Speed: Laser cutting is a fast and efficient technology, so projects can be completed in a short time. This is ideal for those who want to get good things done quickly.
  • Personalisation: laser cutting can be used to create unique and personalised objects. We can realise our own designs and create objects that perfectly match our tastes and needs.
laser-cut decorative sphere

Ideas for creative laser cutting projects:

  • Decorations: laser-cut wall decorations, window ornaments, Christmas decorations, tablecloths, etc. Laser cutting can be used to create unique and stylish decorations that will brighten up your home.
  • Gifts: personalised gifts such as name tags, key chains, jewellery, boxes, etc. Laser cut gifts are unique and special, sure to impress your loved ones.
  • Toys: Laser-cut puzzles, board games, building blocks, etc. Laser-cut toys are not only fun, but also develop children’s dexterity and creativity.
  • Creative Supplies: scrapbooking templates, bookmarks, stamps, etc. Laser-cut creative supplies to personalize your scrapbooks, greeting cards and other craft projects.
  • Unique fashion accessories: laser-cut earrings, necklaces, bracelets, bags, etc. Laser-cut fashion accessories are stylish and unique, making you stand out from the crowd.

Tips for successful laser cutting projects:

  • Plan your project: before you start laser cutting, plan your project carefully. Use vector graphics software to create templates. When planning, consider the material properties, the thickness of the cut and the laser cutter settings.
  • Explore the possibilities online: there are many online platforms and communities offering laser cutting inspiration, templates and tutorials. Browse online, join laser forums and draw inspiration from other people’s projects.
  • Think beyond traditional materials: although wood and plexiglass are popular choices, don’t be afraid to experiment! Use leather, textiles, sponges or even recycled materials to achieve unique textures and looks.
  • Start small: If you’re a beginner, it’s a good idea to start with smaller, simpler projects to familiarise yourself with the technology and learn the basics of laser cutting.
  • Use laser cutting in combination with other techniques: laser cutting perfectly complements traditional craft techniques such as painting, embroidery or carving. Combine these techniques to create truly stunning creations.
  • Safety first! When cutting with a laser, safety regulations must be observed. Wear appropriate protective equipment, such as goggles and gloves, and always operate the laser cutter in a well-ventilated area.

Advanced ideas:

  • Combine 3D printing with laser cutting: create more complex 3D objects by combining 3D printing and laser cutting.
  • Use multiple layers of materials: layer different materials on top of each other to create interesting effects.
  • Create interactive projects: create projects that move, light up or play music.

In addition, remember:

  • Laser engraving options: in addition to laser cutting, most laser machines can also engrave. Take advantage of this option to add personalised messages, designs or images to your projects.
  • Environmentally conscious: Where possible, choose recycled or environmentally friendly materials for your projects.
  • Exercise your creativity: don’t be afraid to let your imagination run wild! The possibilities of laser cutting are endless, so feel free to experiment and create unique, unrepeatable creations.

I hope that these tips and ideas will help you to make the most of the creative possibilities of laser cutting. Feel free to take the plunge and create amazing things!


What materials can be laser cut?

The materials that can be used for laser cutting range from wood, plexiglass, paper, leather, textiles, foam board, engravable metals, rock and many more. However, not all materials are suitable for laser cutting. It is important to check the specifications of your laser cutter to find out what materials you can cut with it.

Where can I find a laser cutting service?

Several companies offer laser cutting services. Search online for “laser cutting” or contact your local print shop, advertising company or woodworking shop. At Ferolaser, we specialise in metal laser cutting, so if you’re looking in this direction, you can contact us.

How much does a laser cut cost?

The price of laser cutting depends on a number of factors, including the type of material to be cut, the size and complexity of the cut, the quantity required and the price of the service provider. The price of laser cutting has now surpassed that of traditional techniques, due to the effective use of energy and environmentally friendly solutions.

How do I make a template for laser cutting?

The template must be created using vector graphics software. There are a number of free and paid vector graphics programs, such as Inkscape, Adobe Illustrator or Corel Draw. When creating the template, make sure that the lines are closed curves and that the thickness of the cut lines is the same as the desired cut width.

What safety precautions should be followed when cutting with a laser?

When cutting with a laser, safety precautions must be followed. Wear safety goggles, gloves and closed clothing. Always operate the laser cutter in a well-ventilated area.

Where can I find more information about laser cutting?

There are many online resources where you can find more information about laser cutting. Some useful websites include: