We collect basic website visitor information on this website and store it in cookies. We also utilize Google Analytics to track page view information to assist us in improving our website.
We collect basic website visitor information on this website and store it in cookies. We also utilize Google Analytics to track page view information to assist us in improving our website.
If you’re passionate about metal cutting or just keen to learn more, you’ve landed in the right place.
For over 38 years, Amber Steel has been at the forefront of metal cutting services, specializing in laser cutting, flame cutting, and plasma cutting. Our expertise has carved a niche in this cutting-edge industry, delivering precision and excellence across industrial projects big and small.
In our blog, we’ll share a mix of useful tips, innovative applications, our thoughts on sustainability in steel cutting, and more. Expect stories from the cutting floor, insights into how our processes can streamline projects across industries, and a few lessons we’ve learned along the way.
While we keep some of our trade secrets under wraps, this blog is designed to offer valuable nuggets of wisdom that you simply won't find anywhere else. Whether you’re a professional in the industry or someone fascinated by the possibilities of metal cutting, you'll find something of value here.
So, stick with us as we delve into the finer points of metal work. We’re glad to share our insights and lead discussions that matter to our industry.
How precision metal cutting propels the aerospace industry, from constructing lighter frames to enhancing aerodynamics.
The role of advanced metal cutting in automotive manufacturing, driving innovations in vehicle design and efficiency.
All about the robust and versatile process of flame cutting, ideal for tackling thicker metals with precision and ease.
Discover the art of crafting metal furniture, where cutting techniques meet design to create both functional and aesthetic pieces.
A behind-the-scenes look at the mechanics of metal cutting technologies and the science that makes them tick.
Laser cutting is where extreme precision meets efficiency, allowing for intricate designs and clean finishes.
The critical role of precise steel cutting in developing reliable and intricate medical devices.
How steel cutting supports the oil and gas industry with components that withstand extreme environments and pressures.
Known for its speed and versatility, plasma cutting slices through conductive metals with hot plasma.
Safety first! Tips and insights on maintaining a safe environment while handling powerful metal cutting equipment.
The backbone of construction, where steel fabrication and cutting technologies create frameworks that shape skylines.
Sustainability
A look at sustainability in metal cutting, focusing on practices that reduce waste and conserve energy to protect our planet.
Anyone who's spent time in fabrication knows one truth: your cut defines your project. When you're transforming raw metal into something extraordinary—whether it's a building that will touch the sky or a machine part with micron-level precision—how you make that first cut is make-or-break. It's not about brute force; it's about understanding how every millimetre matters.
But here’s the thing: not all cutting methods are the same. Laser cutting delivers unmatched precision for detailed designs. Plasma cutting is fast and handles thicker materials with ease. And for heavy-duty work, flame cutting is the go-to option. The key is knowing which method is right for your project. Make the wrong choice, and you’re looking at wasted time, resources, and possibly a lot of frustration.
In this guide, we’ll break down the most common cutting processes, how they work, and where they shine. By the end, you’ll have the clarity you need to pick the best approach for your next project. After all, when you start with the right cut, everything else falls into place.
Metal cutting is an important step in transforming raw materials into components used across countless industries. Whether it’s shaping steel beams for construction or crafting intricate machine parts, the cutting process ensures everything fits together and functions as intended. Precision is key here—without it, assembly can become a challenge, leading to delays or even failures.
Different projects call for different cutting methods. Laser cutting offers unmatched precision for detailed work, while plasma cutting is better suited for thicker materials. Flame cutting, on the other hand, excels in heavy-duty applications. Each method has its place and understanding when to use which can make all the difference in achieving efficiency and cost-effectiveness. Learn more about the basics of metal cutting here.
Laser cutting uses a concentrated beam of light to heat and melt the material at specific points, creating clean and precise cuts. A jet of gas then removes the molten material, leaving behind a smooth edge.
Strengths: Laser cutting is renowned for its precision, capable of creating intricate designs with tolerances as tight as ±0.005 inches. The smooth edges it produces often eliminate the need for post-processing, saving time and effort. It’s ideal for thin materials and detailed projects.
Limitations: Laser cutting struggles with thicker materials, where the process becomes slower and more expensive due to increased energy requirements. The upfront cost of laser cutting equipment also makes it less practical for smaller or less precise jobs.
Plasma cutting uses a high-temperature ionized gas to melt and remove metal. The plasma jet is formed by forcing gas through a nozzle while applying an electrical arc to ionize it.
Strengths: Plasma cutting is versatile, capable of cutting through metals up to 1.5 inches thick. It’s faster than laser cutting for these applications and is suitable for a wide range of materials.
Limitations: While fast, plasma cutting produces rougher edges compared to laser cutting, often requiring additional finishing. Its precision is also lower, making it less suitable for intricate designs.
Flame Cutting: Heavy-Duty Power
Flame cutting uses a mixture of oxygen and fuel gas to create a flame hot enough to melt metal, which is then blown away by the oxygen jet.
Strengths: This method is ideal for cutting thick steel, often exceeding 1 inch. It’s a cost-effective solution for heavy-duty jobs, especially in industries like construction and shipbuilding.
Limitations: Flame cutting produces a heat-affected zone (HAZ), which can warp the metal or alter its properties. It also has lower precision than laser or plasma cutting, making it unsuitable for projects requiring tight tolerances.
Understanding these methods and their strengths and limitations is the first step in selecting the best process for your project. Each method has its place, and choosing wisely ensures better results and fewer complications down the line.
Choosing the right cutting process is like choosing the right tool for a job—it depends on what you’re working with and what you need to accomplish. The right decision can save time, money, and effort, while the wrong one can lead to frustration and wasted resources.
Thin materials like sheet metal or aluminum are ideal for laser cutting, which provides precision and clean edges.
Plasma cutting handles metals up to 1.5 inches thick efficiently.
Flame cutting excels for steel plates over an inch thick, cutting dense materials with ease.
High-tolerance industries (e.g., aerospace, automotive) require laser cutting for exact fits.
Structural projects (e.g., beams, frames) allow for looser tolerances, making plasma or flame cutting more practical.
Laser cutting is a higher upfront investment but minimizes rework costs.
Flame cutting is budget-friendly but may require finishing work.
Plasma and flame cutting are faster options for projects with tight timelines.
Laser cutting may take longer but produces more precise results, reducing errors.
By evaluating these factors, you can choose a cutting method that aligns best with your needs.
Each cutting method has its pros and cons. Understanding these trade-offs can help you make the right decision.
Advantages: Exceptional precision, minimal finishing, ideal for intricate designs.
Disadvantages: Struggles with thick materials; higher upfront cost.
Advantages: Fast, versatile, handles thick materials.
Disadvantages: Rougher edges; less suitable for detailed projects.
Advantages: Cost-effective, great for thick steel.
Disadvantages: Lower precision; heat-affected zones may require rework.
For a comprehensive comparison of laser, plasma, and flame cutting technologies, check out Making Sense of Metal Cutting Technologies by The Fabricator.
Every cutting method has its place, and choosing the right one depends on the specific demands of the industry. Some projects require extreme precision, while others call for speed and durability. Here’s how laser, plasma, and flame cutting are commonly used in different fields.
Automotive Industry: Laser cutting for engine parts, gears, and brackets.
Construction: Plasma and flame cutting for steel beams and large-scale jobs.
Aerospace: Laser cutting for lightweight, high-precision components.
Manufacturing: Plasma cutting for general-purpose parts and equipment.
Equipment Limitations: Machines require maintenance and calibration.
Material Behavior: How different metals respond to heat and cutting methods.
Balancing Cost and Precision: Avoid overengineering for unnecessary precision or sacrificing quality to save money.
Production Bottlenecks: Inspections and finishing work can slow timelines.
Getting the right balance between precision and efficiency is one of the toughest parts of metal fabrication. Push for perfection, and you’ll overspend and slow down production. Relax the standards too much, and you risk ending up with parts that don’t fit or function properly. The trick is knowing when accuracy matters most and when it’s okay to let go a bit.
Not every part needs perfect precision. Take structural steel beams, for instance. As long as they’re close to the required dimensions, small variations won’t cause any problems. But for something like bolt holes, there's no room for mistakes. They need to be spot-on for everything to line up during assembly. Focusing your precision where it really counts helps you avoid wasting resources on perfection that doesn’t matter.
It’s tempting to demand the highest tolerances for every cut, but this often leads to wasted time and money. Tight tolerances need advanced tools, slower cutting speeds, and extra inspections—all of which can quickly add up. If your project doesn’t require laser-sharp accuracy, looser tolerances can do the job just as well and keep your costs in check.
Mixing cutting methods is one smart way to balance precision and efficiency. Use laser cutting for intricate details that need tight tolerances, and plasma cutting for larger, simpler pieces. This hybrid approach lets you take advantage of the strengths of each method, speeding up production while still ensuring quality where it counts most.
At the end of the day, balancing precision with efficiency isn’t about cutting corners; it’s about making smart decisions. By matching your approach to your project’s needs, you save time, keep costs under control, and still get the results you want without complicating things.
Every project starts with a choice, and in metal fabrication, that choice is the cutting process. It’s not just about slicing through steel or aluminum—it’s about making sure every cut serves the bigger picture. Whether it’s the clean precision of laser cutting, the speed and versatility of plasma cutting, or the brute power of flame cutting, the method you choose shapes everything that comes next.
Laser cutting is perfect when precision is key, especially in industries like aerospace or automotive, where every detail counts. Plasma cutting, on the other hand, gives you the flexibility and speed needed for thicker materials, making it a go-to in construction and general manufacturing. And when it comes to heavy-duty work? Flame cutting steps in, where power takes precedence over perfect edges.
The trick to success is balance. Not every part of your project needs the highest precision, and not every budget can stretch to the top tools. By understanding what your project truly needs—whether it’s speed, accuracy, or cost—you can choose the method that’s right for the job.
Ultimately, metal cutting is about more than just shaping materials. It’s about creating something that works, lasts, and fits the bigger picture. Choose wisely, and each cut will bring you closer to a project you can truly be proud of.
Ready to start your next project? Contact Amber Steel for expert advice and cutting solutions.
In the automotive industry, innovation is crucial for staying ahead and producing accurate results. As the industry evolves, a revolutionary method in automotive OEM production is laser blanking–a cutting-edge process offering unparalleled precision and flexibility.
Amber Steel is a leading metal-cutting provider specializing in providing the best solutions for your manufacturing needs. In this blog, our experts explore how laser blanking technology transforms automotive OEM production, saving time and costs while going above the demands of modern vehicle manufacturing.
Laser blanking is a modern approach to manufacturing where a laser is implemented by cutting flat pieces of metal, known as blanks, to create precise shapes and sizes. Traditional blanking methods typically use mechanical punches and dies. With this innovation, laser blanking uses computer systems that guide laser beams to make intricate and accurate cuts in automotive OEM production.
Laser blanking technology was first introduced in the early 1970s in the metalworking industry. At the start, lasers were first mounted to oxy-fuel cutting machines. With time and further adjustments, the potential of laser blanking quickly became evident.
Here is a breakdown of the evolution of laser blanking throughout history:
1970s: The 500-watt CO2 laser was introduced, creating the beginning of laser technology in metalworking. Even though early applications were limited, laser technology still proved useful in cutting complex shapes, which revolutionized the way sheet metal was fabricated.
1990s: During this period, the concept of laser blanking became known globally. Many companies started adopting this new technology into their manufacturing processes and began replacing traditional blanking presses with coil-fed laser cutting systems. The workings of modern laser blanking led to enhanced efficiency and flexibility.
2000s: With new advancements, fiber laser technology was introduced which significantly increased the speed of laser blanking. High-brightness fiber lasers created faster cutting speeds and meticulous cuts, making laser blanking the most viable option for mechanical stamping presses.
Initial Experiments: At first, lasers were integrated into previous existing cutting machines to provide precision and accuracy with more traditional methods. These experiments showed that lasers could achieve better cutting results on their own instead of being add-ons to older machines.
Multicompany Usage: A variety of companies decided to implement laser blanking into their practices. This collaboration explored the feasibility of replacing blanking presses with laser systems, which led to the development of coil-fed laser cutting.
Technological Advancements: The 2000s is when laser cutting significantly improved by introducing high-brightness fiber lasers. These new updates provided faster and more precise cuts, enabling manufacturers to produce high-quality blanks at lower costs, and faster schedules.
Laser blanking has revolutionized the way manufacturers process metal blanks. Since its introduction, with experimentation and collaboration, laser blanking has evolved to create more efficient results. Amber Steel continues to strategically use this modern form of technology, providing cutting-edge later blanking services to meet the diverse needs of the automotive industry.
Original Equipment Manufacturers (OEMs) in the automotive industry are companies that produce parts and equipment that may be marketed by another manufacturer, said manufacturer here being Amber Steel. Automotive OEM production involves the creation of essential vehicle components, which are then assembled into a vehicle by automakers. Since there are strict safety guidelines for the creation of vehicle parts, blanking services must use precision, efficiency, and adaptable designs to meet the diverse needs of the automotive market.
An important facet of laser blanking is its improved formability of metal blanks, which is crucial for the stamping process of automotive parts to fit together during the assembling process:
Contoured Blanks: Laser blanking can create contoured blanks, which results in the look and feel of smooth, curved edges rather than sharp corners. The best method to obtain a contoured shape is to use a stamping press with lasers. This method reduces the risk of material failure.
Enhanced Drawing Processes: A computer-guided laser cutting system easily allows for tweaking blanks and shapes. Complex shapes can effortlessly be drawn, which proves to be a better option than traditional blank outcomes.
Consistent Quality: The need for exact specifications in automotive production is what makes laser blanking the most applicable method. Its ability to consistently provide quality, and exact measurements allows the stamping process to run smoothly.
Since there are a variety of different vehicle models, with newer ones each year, it is important for the automotive industry to utilize a blanking process that can adjust to these demands:
Rapid Design Changes: With laser blanking, manufacturers can quickly adapt to new vehicle designs, eliminating the use of dies. This process streamlines rapid prototyping and allows manufacturers to put new models on the market faster.
Variety of Geometrics: Different vehicles have diverse needs when it comes to creating parts to assemble. Laser blanking's flexibility can accommodate these needs. Whether it's a simple panel or a complex structural part, laser blanking can handle the task with ease.
Scalability: As the demands for different vehicle structures change, laser blanking systems can easily scale production rates according to the needs of the automotive industry. This adaptable approach ensures that manufacturers get the right amount of product.
The impact of laser blanking during automotive parts production makes it the most qualified system to receive the best results. Integrating laser blanking technology improves the production process, reduces costs, and maintains quality. Amber Steel continues to implement these advantages by using laser blanking to meet the evolving standards of the automotive OEM production industry.
One of the many benefits that set laser blanking apart from traditional manufacturing methods is its precision and flexibility for automotive OEM production:
Detailed and Complex Shapes: Without the need for mechanical punches and dies, laser blanking uses computer-guided laser technology to create intricate patterns. This results in smooth, precise edges that are difficult to achieve with traditional methods. Laser blanks meet the exact specifications for automotive OEM production without further adjustments.
Design Versatility: Laser blanking can easily switch designs with computers instead of physical die changes. This allows manufacturers to quickly make edits to exact specifications, resulting in less time for projects involving various parts.
Optimization of Material Use: Waste is minimized by strategically nesting parts of sheet metal for optimal space. This not only leads to a more sustainable practice but also provides savings on material costs.
Modern laser blanking lines typically exceed the speed of traditional press-based blanking. These results far outweigh old practices with:
High-Speed Cutting: the advancement in fiber laser technology has greatly increased cutting speeds. Modern laser blanking systems can cut metal at remarkable speeds, making them almost superior to mechanical stamping presses. Its fast technology is ideal for automotive production, especially due to the demands of manufacturing multiple shapes.
Continuous Operation: Laser blanking lines can operate continuously, reducing the time it takes to change dies and specifications. With the minimization of interruptions and the involvement of high-speed cutting, manufacturing processing times are significantly reduced.
Toolless Operation: The absence of having to physically change dies means there is no need for die maintenance, storage, or die changes, which can reduce maintenance and product costs.
The advancements of laser blanking are versatile and have led to the ability to cut through thicker steels and other challenging materials without a struggle:
High-Strength Steels: As the automotive industry moves toward lighter and stronger materials, the need for laser blanking has become more pressing. Its ability to cut through high-strength steels with ease and prevent materials from wearing down proves it a better replacement for previous forms of metal shaping.
Thickness and Grade Variability: Laser blanking is suitable for a wide range of materials. It focuses on the thickness of a material and its absorbable laser energy. This practice is ideal for various materials, including aluminum sheets or thick, high-strength steel plates.
Consistent Quality: The precise control of laser blanking provides quality cuts among different variations of materials and thickness. The high standards that laser cutting provides are perfect for automotive manufacturing, where each component must meet strict quality requirements.
Laser Blanking offers a modern approach to automotive OEM production that has significantly benefited the industry. Its advantages have evolved significantly, creating low costs, reduced times, improved formability, and exceptional adaptability. This new laser technology creates high-quality, intricate blanks using versatile and efficient techniques and has become the most ideal method for the demanding needs of the automotive industry. The future of laser blanking looks promising, with newer, more revolutionized applications, its potential to extend beyond automotive manufacturing could prove beneficial for other lines of work.
Contact us today to learn more about how Amber Steel can benefit your business with modern laser blanking technology. Discover how our services can improve your production efforts and drive innovation in your manufacturing processes.
