The XS Inline and GX Small: New Laser Marking Powerhouses
Technomark is proud to offer two compact yet powerful laser marking solutions, the XS Inline and GX Small, designed to meet the evolving needs of modern production lines and standalone workstations.
Whether you’re looking for seamless integration into your manufacturing line or a single-handed marking station that delivers consistency and durability, these systems offer intelligent, adaptable marking for traceability in industrial environments.
XS Inline: Optimized for Inline Laser Marking
Designed specifically for integration into automated lines, the XS Inline system is ideal for industrial environments with limited space, yet consistent high performance.
Key Features:
Compact and modular design: The XS Inline’s small footprint makes it easy to embed directly into your production line.
Adjustable marking window: Multiple marking window sizes are available to meet specific traceability needs.
Intelligent driving technology: Powered by the IDI Marking System for consistent laser marking depth and quality on various materials.
Simple connectivity: Integrates easily with existing industrial equipment via multiple I/O and communication protocols.
Low maintenance: Built for reliability and long-term use in continuous production environments.
From metal components to hard plastics, the XS Inline is the go-to choice for manufacturers who demand precision and dependability without compromising space or speed.
GX Small: A Compact Station for Precision and Control
The GX Small is a bench-top laser marking station that delivers impressive power and adaptability in a compact footprint – perfect for small workspaces and light industrial use.
Key Features:
Controlled marking: The GX Small delivers highly accurate and legible markings – even on complex surfaces or smaller parts.
Space-saving setup: While the system requires a PC to run the software, the compact control unit can be positioned on top of the station or alongside it, simplifying installation and minimizing the overall footprint.
Durable cast aluminum structure: Designed for long-term use, the rugged housing resists wear and vibration in light-to-medium industrial settings.
Adjustable Z-axis column: The included column stand allows quick and easy adjustment of the marking height to accommodate parts of varying sizes.
Low noise operation: It operates at reduced noise levels, making it suitable for quieter environments like lab spaces or office-neighboring workstations.
Whether you’re using laser marking tools, plates, or components, the GX Small offers easy-to-use operation and reliable performance.
Want to learn more on how GX Small can help your business? Download our leaflet here
Why Industrial Laser Marking Matters
Traceability isn’t just a nice-to-have in today’s manufacturing world. It’s a core part of how companies stay compliant, efficient, and competitive. As supply chains become increasingly complex and quality standards continue to rise, the ability to accurately mark and track every part has never been more critical.
Permanent, readable marks ensure that components can be traced from production to end use. That’s needed for everything from recalls and warranty claims to audits and regulatory requirements. Whether it’s a small tool or a complex assembly, laser marking plays a key role in maintaining transparency and accountability.
Solutions like the XS Inline and GX Small make it easier to meet these demands without disrupting your workflow. They bring precision, consistency, and space-saving flexibility to traceability right to where you need it most.
Ready to Boost Your Laser Marking Efficiency?
The XS Inline and GX Small offer smart laser marking solutions for both inline and station-based applications. Discover all of our other laser marking and industrial traceability solutions:
Selecting Materials: Guide for Laser Marking Machines
Laser marking machines are necessary in sectors where labels must withstand tough conditions and stay readable. When picking the right laser for the job, it really boils down to the materials you’re working with.
Whether you’re dealing with hard metals that demand precise, enduring marks or softer materials like plastics and wood that need a lighter touch, knowing the specific challenges and requirements of your materials is key.
In this article, we’ll break down how choosing the right laser based on your material can make a big difference in your operations.
The 2 Different Types of Laser Markings
Fiber lasers are known for their efficiency and precision. They intensify a simple seed laser into a powerful beam ideal for detailed cutting and welding. If you’re looking for a reliable and efficient machine with minimal downtime, fiber lasers might be the right choice.
CO2 lasers, on the other hand, use carbon dioxide to generate a beam that’s excellent for high-precision and intricate designs. They’re fast and versatile, perfect for projects that require quick turnarounds on a variety of materials, from metal to wood.
Materials Compatible With Laser Marking
Laser marking technology provides a flexible and effective way to engrave and mark various materials, each with distinct traits and ideal for specific uses.
From the natural beauty of wood, which provides a classic, warm finish, to the durability and precision required for laser-marked metals like stainless steel and aluminum, laser systems can cater to a variety of different materials.
Plastics offer a versatile canvas for laser marking thanks to their wide range of types. This allows for both clear and distinct markings, making it a flexible choice for various applications.
Specific types of materials that are compatible with laser marking systems include:
Metals:
Stainless steel
Steel
Carbide
Titanium
Aluminum
Gold
Plastics:
ABS (Acrylonitrile Butadiene Styrene)
Polycarbonate
Polyamide
Other materials:
Wood
Ceramic
Understanding the properties of these materials can help you select the right laser marking system and ensure high-quality, lasting marks.
Factors in Choosing Material for Laser Marking
Choosing the right laser marking system means ensuring it works well with the materials you plan to mark or engrave. Different materials, such as stone, glass, or metal, require different lasers and power levels.
For instance:
CO2 lasers excel in engraving organic materials (like wood or glass), plastics, and certain metals, but they might struggle with stainless steel due to its high reflectivity.
On the other hand, fiber lasers, with their higher power output, are better suited for marking metals like aluminum, brass, and titanium. This is why identifying the surface material is important before buying a laser marking machine.
When choosing the appropriate laser marking machine for the materials in your production line, you should consider the following:
Material properties: Different materials have unique absorption rates, heat resistance, and other characteristics that influence how you can mark them
Desired outcome: The quality, depth, and durability of the marking significantly impact the choice of machine. These factors should align with your production line requirements to ensure optimal performance.
Environmental considerations: The labeling must endure throughout the lifespan of the laser-marked product. In demanding applications, such as aerospace, exposure to elements and temperature variations can dictate the most effective marking method.
Regulatory and safety standards: Different industries have varying regulations concerning part durability and traceability. Your chosen marking solution must comply with these standards while providing long-term reliability and accuracy.
How does laser markings compare to dot-peen marking in your industry?
Keep reading here for more marking solutions tailored to your specific needs!
Tips for Optimizing Material Choice and the Laser Marking Process
Understanding each piece of the “quality” puzzle when it comes to material preparation and handling for a laser-marked product is key.
Knowing how to use laser marking machines effectively can significantly improve your product’s outcome.
Here is a numbered list of key practices for matching material to machine:
Surface preparation: Ensure the material surface is clean, free from oils, dust, or contaminants. Conduct test runs for materials with varied qualities or coatings to find optimal laser settings for consistent results.
Laser parameter adjustment: Different materials and marking depths require adjustments in power, speed, frequency, and focus. Regular calibration and test runs on sample materials help fine-tune these settings for each specific task.
Record-keeping: Maintain a log of the best settings for various materials and applications to minimize trial and error.
Regular maintenance: Establish a maintenance schedule for cleaning lenses and mirrors, and ensuring moving parts are well-lubricated. Regular checks for wear or damage are also crucial.
Use high-quality consumables: Invest in trustworthy lenses, mirrors, and laser sources. Regular inspections and timely replacements are key to sustaining peak laser performance and marking quality.
Technomark offers free tests on your parts to ensure that laser marking is the right solution. We can also provide training to help users with advanced marking settings.
Navigating Material Choices for Maximum ROI in Laser Marking
Laser marking machines stand out for their efficiency and lower energy use, delivering durable marks that other methods can’t match. When choosing the right material for your marking machine, consider every angle. Be thorough during the testing phase to ensure your investment is worth it when full-scale production begins.
Remember, taking the time to get these decisions right is not just about optimizing your process but also maximizing your return on investment. So dive deep, test thoroughly, and make informed choices to see the best results when you ramp up production.
Unlock Your Laser Marking Potential
Still wondering about laser marking?
Take this resource with you – it’s packed with insights and tips to help you make informed decisions and optimize your operations.
Imagine having the ability to track every component, process, and product in your manufacturing chain with precision.
TA traceability software enables manufacturers to navigate the complexities and regulatory requirements of modern production.
Whether you’re a manufacturing manager, an operations director, or a quality control specialist, software traceability for manufacturing transforms how you manage your processes and assure quality.
Let’s dive into the key benefits of traceability software and how it streamlines modern manufacturing across industries. Plus, discover why investing in traceability is essential for staying competitive and future-proofing your business.
What is Traceability Software in Manufacturing?
Traceability software is a specialized tool that helps manufacturers monitor and document every stage of the production process. From raw materials to finished goods, this software provides complete visibility into where a product comes from, how it is made, and where it goes.
Supply chain traceability software provides end-to-end visibility and control over the manufacturing process. It tracks and records the movement of materials, components, and finished products throughout the supply chain, creating a comprehensive digital record of every step.
By assigning unique identifiers to items, the software ensures material traceability in manufacturing, allowing each component to be traced back to its origin and monitored throughout production, assembly, and distribution.
This system helps manufacturers monitor production in real time, gathering data at every stage to ensure processes run smoothly and efficiently. It streamlines the tracking of individual parts or batches, making it easier to identify where an issue occurred if a defect arises.
Check out what fits best for laser marking systems in your industrial facilities here
With its centralized data management capabilities, traceability software consolidates all production and supply chain information into a single, secure platform, ensuring quick access to necessary information whenever needed.
In addition to providing visibility, traceability software streamlines seamless coordination across teams by integrating production data, supplier information, and quality control measures. It helps manufacturers ensure that all components meet compliance standards and that deviations are flagged and promptly addressed.
In the event of a recall, the software enables manufacturers to pinpoint affected batches, isolating them quickly to minimize disruptions and protect customer safety.
How is Traceability Used in Manufacturing?
Traceability software can be integrated into various aspects of manufacturing to optimize processes and ensure accountability.
There are several key features of traceability systems, including:
Real-time data tracking: allows manufacturers to monitor production processes as they happen and gain detailed insights into each stage.
Direct part marking (DPM): where unique, permanent markings are assigned to components using laser marking or dot peening, ensuring traceability at the item level.
Centralized data storage: helps collect and store all production data in one secure and easily accessible location.
Reporting and audit capabilities: makes it easy to generate detailed reports for certifications and maintain accurate audit records.
Recall management: allows manufacturers to identify and isolate affected batches quickly, executing recalls efficiently.
With these features, traceability software acts as both a quality enhancement tool and a safeguard against risks in the supply chain. By deploying traceability software, manufacturers can achieve remarkable levels of control and efficiency across production and supply chain operations.
Industries Benefiting from Traceability Software
Traceability software has become an efficient tool for industries that depend on safety, quality, and regulatory compliance. By providing visibility into the lifecycle of products and components, it helps businesses prevent costly mistakes, streamline operations, and maintain the trust of their customers.
Traceability software helps manufacturers in several industries to maintain compliance and consistency, including:
Automotive
Aerospace
Medical device
Automotive Industry
The automotive industry relies heavily on precision, safety, and traceability, and software plays a key role in achieving these.
It tracks major components such as powertrains and braking systems, throughout their lifecycle, making sure they meet stringent safety and quality standards. It also ensures compliance with industry regulations like AIAG B-17, assuring products meet global standards.
Supplier management becomes more efficient, with seamless quality control processes and swift recall mechanisms in place when needed.
Aerospace Industry
In the aerospace world, where reliability and precision must be met for safety, traceability software provides full lifecycle tracking for critical components like turbines and airframes.
This ensures every part meets strict safety guidelines and improves overall reliability.
Additionally, traceability systems protect the supply chain from counterfeit parts, a major concern in high-stakes industries. Compliance with standards like Spec 2000 marking is easier, ensuring clear tracking from production to final use.
Medical Device Industry
Patient safety is at the heart of the medical device industry, and traceability software ensures it by permanently marking implants and surgical instruments.
These markings help manufacturers meet UDI (Unique Device Identifier) requirements and provide lifecycle tracking for rapid issue resolution.
By maintaining regulatory compliance across the board, traceability systems increases safety and builds trust in a highly regulated, sensitive market.
Future-Proof Your Manufacturing Operations
The demand for transparency, quality, and regulatory compliance will only increase. Manufacturers who integrate traceability software minimize risks and position themselves for sustainable growth.
Your business can stay ahead of the curve by implementing a traceability solution like Technomark’s systems. From quality control to supply chain optimization, traceability software ensures your parts are seen from production to installation.
Build a resilient future in manufacturing. Embrace traceability and create a production process that captures your products’ originality.
Get Expert Advice on Traceability
Looking for guidance? Contact Technomark’s experts today to explore how traceability can elevate manufacturing operations and download our guide below for more information.
Over the past few years, there has been a significant shift in how medical devices are identified. Starting September 24, 2022, FDA regulations have required medical part marking through UDI direct marks on “any reusable and reprocessed medical devices on the U.S. market.”
Many manufacturers have adopted Automatic Identification and Data Capture (AIDC) technologies to meet these requirements. AIDC includes tools like barcodes, data matrix codes, and RFID tags, which allow for accurate tracking and identification throughout a device’s lifecycle while aligning with UDI compliance standards.
This change applies to a wide range of devices, including surgical instruments, dental probes, and medical drills. It also impacts many Class I, II, and III products, standardizing identification across the industry.
Medical part marking offers a practical solution for meeting these standards, providing a reliable and readable ID for each part while delivering the precision needed in the medical field.
When it comes to the medical industry, laser marking is ideal due to:
the capabilities of the machines
the potential size marking for the part
the fact that no material is wasted during the marking process
Paired with user-friendly software, laser marking devices make medical part marking straightforward and dependable for both experienced teams and those new to the process.
Fitting Into the UDI System: Medical Devices
The UDI system requires all medical devices to be assigned a unique device identifier (UDI) before being placed on the market. This UDI is used to distinguish each device from others in its class and other classes. The UDI must be included on the device label, as well as reported to FDA’s Global Unique Device Identification Database.
Medical devices can be classified into:
Life-Support Medical Devices –those that are essential to keeping a patient alive, e.g. ventilators and heart monitors.
Life-Sustaining Medical Devices – those that are not essential to keeping a patient alive, but they improve their quality of life, e.g. defibrillators.
General-Use Medical Devices – those that are not used specifically for life-saving or life-sustaining purposes, e.g., blood pressure monitors or cervical collars.
The classification of a medical device is important because it determines how the device must be labeled and tracked. In addition, different classes of medical devices have different medical part marking safety requirements. For example, life-support medical devices must meet more stringent quality standards than general-use medical devices.
Understanding whether a device is intended for single or multiple uses directly impacts its labeling and tracking requirements. This distinction helps maintain patient safety and regulatory compliance through proper lifecycle management:
Single-use medical devices can only be used once on a single patient, like a syringe.
Multi-use medical devices can be used more than once on different patients, such as an endoscope.
Reprocessing is the term used to describe the cleaning, disinfection, and/or sterilization of a reusable medical device so that it can be used again.
Marking Methods for Medical Devices: Frosting vs. Black and White Marking
Medical devices must be marked in order to meet industry standards and provide a reliable and readable ID number for each part. There are two types of marking used for medical devices: frosting and black-and-white marking.
Frosting involves lightening the background, while black and white medical part marking involves the data matrix code and clear differentiation of the code areas. This increases contrast and legibility.
Guidelines for Marking Medical Devices
Medical devices must also be marked to provide a reliable and readable ID number for each part. Ideally, the part will clearly display its ID number in its entirety. However, if that’s not possible due to part size or other factors, then the minimum of the barcode must be shown.
The smallest size permitted for the part marking is 0.1 mm. In fact, the widely accepted guidelines are for a DMC area size of 2.5 x 2.5 mm minimum.
Exceptions to Direct Part Marking
The FDA provides some exceptions for medical devices that do not require medical part marking.
The exceptions for devices to display a legible mark for identification purposes include the following:
When marking will interfere with device effectiveness or safety
When technical limitations to marking the device directly exist
When the device is single-use
When a permanent UDI is already marked on the device
When the device is for use in research, teaching, or chemical analysis
When the device is for veterinary use only
When the device is to be exported from the US
When the packaging of the device bears the UDI rather than the device itself
Medical Devices and DPM: Fulfilling Regulatory Requirements
Since September 2022, direct part marking has become a standard for most Class I and II medical devices, with a few exceptions.
Adding at least an Automatic Identification and Data Capture (AIDC) to each device helps meet updated regulations while making it easier to track and identify them throughout their use.
These changes support safer healthcare practices and help manufacturers and providers work more efficiently, creating a smoother process for everyone involved.
Time for Action: Discuss your Medical Part Marking Needs
Technomark experts can help you determine the best way to implement laser marking as part of your production process. Consider this free resource:
In industries where traceability, compliance, and durability are non-negotiable, direct part marking ensures critical information stays where it belongs — on the part itself. Whether you’re tracking components through a supply chain, meeting regulatory standards, or branding products for longevity, the rightmarking method can make all the difference.
Two technologies dominate the world of part marking: laser marking machines and dot peen marking machines. While both offer reliable solutions, their strengths shine in different applications. From the precision demands of the medical and electronics industries to the rugged requirements of the automotive and energy sectors, choosing the right solution depends on your materials, environment, and production needs.
Let’s explore how laser part marking and dot peen marking perform across key industries, highlighting the best use cases for each technology.
What is Direct Part Marking?
Direct part marking refers to the process of permanently engraving or imprinting information — such as serial numbers, barcodes, or logos — onto a part. This process is essential for industries requiring traceability and identification throughout a product’s lifecycle.
Laser Part Marking: An Overview
A laser marking machine uses a focused laser beam to mark materials precisely. This non-contact method doesn’t physically alter the surface, making it ideal for fragile or thin materials.
Advantages of Laser Marking:
Precision: High detail, capable of marking tiny, complex designs.
Material Versatility: Works on metals, plastics, ceramics, and more.
Durability: Marks are resistant to wear, corrosion, and environmental damage.
Non-Contact: Ensures no stress or damage to the part.
Dot Peen Marking Machines: An Overview
A dot peen marking machine creates permanent marks by using a stylus that rapidly strikes the material, forming a series of dots. This mechanical process is efficient for deep and rugged markings.
Durability: Deep marks withstand extreme conditions, ideal for rough handling.
Cost-Effective: Lower operating costs compared to lasers.
Material Compatibility: Works well on metals and other hard surfaces.
Speed: Fast marking process, especially for serial numbers or codes.
5 Factors to Consider When Choosing Between Direct Part Marking Methods
The choice between laser marking systems and dot peen marking machines often comes down to the specific application and the amount of material impacted during the marking process. Industries like medical, automotive, and defense rely on both technologies, selecting the best method based on their unique marking needs and the materials being marked.
When deciding between laser marking and dot peen marking for your production processes, consider these five key factors:
1. Specific Industrial Application Needs
Detail Requirements: Consider the level of detail required in the mark, including font size, complexity of logos or barcodes, and the need for high-resolution images.
Mark Durability: Determine the level of resistance required to factors like abrasion, chemicals, and extreme temperatures.
2. Material Types and Properties
Material Compatibility: Evaluate the marking method’s suitability for different materials, considering factors like hardness, heat sensitivity, and surface characteristics.
Mark Aesthetics: Assess the desired appearance of the mark, such as the smoothness, depth, and contrast.
3. Operating Environment
Environmental Conditions: Consider factors such as temperature fluctuations, exposure to dust or debris, and the presence of corrosive substances.
Production Line Integration: Determine the need for integration with existing production lines and automation systems.
4. Production Volume
Throughput Requirements: Evaluate the required marking speed and the need for high-volume, automated marking solutions.
5. Regulatory and Compliance Requirements
Industry Standards: Ensure the chosen method complies with relevant industry standards and regulations, such as those in the aerospace, automotive, or medical device sectors.
Making the Right Decision: Steps to Choose the Suitable Direct Part Marking System
Selecting the right marking system for industrial applications involves evaluating key factors to ensure it meets both current demands and future requirements. The right choice will align with industry standards, optimize efficiency, and deliver a strong return on investment.
Here are three essential steps to guide your decision:
Consult with marking system experts
Consider future scalability and adaptability
Test and sample potential systems
1. Consult with Marking System Experts
Partnering with marking system specialists can provide critical insights to streamline your decision-making process. These experts can:
Offer in-depth knowledge of the latest technologies and their capabilities.
Evaluate your specific needs to match them with the strengths and limitations of different marking systems.
Share real-world examples and case studies from similar industrial applications, showcasing solutions to common challenges.
Advise on total cost of ownership, including ongoing maintenance, consumables, and potential system upgrades.
2. Considering Future Scalability and Adaptability
Choosing a marking system that aligns with your business’s long-term goals is essential for ensuring sustained efficiency and performance. A well-chosen system should not only meet your current needs but also support future growth with the following qualities:
Scalability: Opt for a system capable of handling increased production volumes or extended operational hours without compromising quality or causing significant downtime.
Adaptability: Ensure the system is versatile enough to mark new materials, accommodate different part geometries, or meet evolving marking requirements as your product lines expand.
Software and Integration: Look for systems with upgradable software that offer new features and ensures compatibility with emerging technologies. Seamless integration with your existing production management or quality control systems is also key.
3. Test and Sample Potential Systems
Before committing to a marking system, conducting thorough testing is essential to ensure it meets your production and quality requirements. This process should include:
Sample Marking: Share samples of your materials with manufacturers or distributors and request marking demonstrations. Evaluate the results for quality, speed, precision, and material compatibility.
On-Site Demonstrations: Whenever possible, arrange on-site demos to observe the system’s performance in your actual production environment, including workflow integration and operator ease of use.
Durability Testing: Assess the longevity of the marks by exposing them to conditions that replicate your operational environment, such as chemicals, abrasives, and wear over time.
Laser Marking vs. Dot Peen Marking Machines: Industry-Specific Applications
From automotive to agriculture and beyond, industries that rely on permanent product identification share a common need: marks that are reliable, readable, and durable. Whether it’s for lifespan management, traceability, or recall processes, the marking method must align with each industry’s unique demands.
In some sectors, the ability to withstand extreme wear, corrosion, or heat is paramount. In others, the priority is minimizing surface disruption while maintaining clarity and precision.
Choosing the right marking system depends on these priorities. The chart below highlights the key benefits of laser marking systems and dot peen marking machines across various industrial applications, helping you determine the most effective solution for your products.
Industry Specifications: Determining the Right Marking System
Direct part marking is no longer just a requirement; it’s a strategic advantage. Whether you need the precision of a laser marking system for delicate medical instruments and electronics or the rugged reliability of a dot peen marking machine for aerospace and automotive components, the right technology ensures that your marks remain permanent, readable, and resilient.
Ready to Take Direct Part Marking to the Next Level?
Learn how laser marking’s precision, versatility, and durability can elevate your manufacturing processes. Visit our Laser Marking Page to explore how Technomark’s cutting-edge solutions can meet your industry’s marking needs.
Imagine achieving clean, permanent markings on your parts with unmatched speed and precision — all while reducing maintenance headaches and boosting productivity. That’s the promise of fiber laser marking technology.
Fiber laser technology has become a pivotal tool across industries because of its precision, durability, and efficiency. Whether you’re marking intricate details on medical devices or ensuring traceability on industrial components, fiber lasers stand out for their adaptability and high performance.
Let’s explore the unique advantages of fiber laser marking machines, shedding light on why they’re increasingly chosen as the go-to solution for modern manufacturing challenges.
What is a Fiber Laser Marking Machine?
A fiber laser marking machine is an advanced industrial tool that uses a focused fiber laser beam to create permanent, high-precision marks on various materials. The laser alters the surface properties of the material, producing sharp, clear markings such as serial numbers, barcodes, logos, and other identifiers. This technology is highly valued for its precision, speed, and durability, offering consistent results with minimal maintenance.
Automotive: Marking parts for identification and traceability (VIN numbers, part numbers, logos).
Aerospace: Marking components with serial numbers, part numbers, and other critical information for tracking and maintenance.
Electronics: Marking circuit boards, components, and devices with serial numbers, logos, and other markings.
Medical Devices: Marking instruments, implants, and other medical equipment with unique identification codes for traceability and regulatory compliance.
Military: Marking weapons, equipment, and components for traceability, compliance, and inventory management.
7 Key Benefits of Choosing a Fiber Laser Marking Machine
Fiber laser marking changed industrial processes with its cutting-edge technology, delivering precision and efficiency like never before. This solution combines exceptional performance with a compact, versatile design, all while keeping maintenance and costs to a minimum.
These lasers have been a staple for decades, and here are seven reasons why:
Precision and Beam Quality
Energy Efficiency
Versatility
Compact Design
High Output Power
Reliability and Low Maintenance
Cost-Effectiveness
1. Precision and Beam Quality
Fiber lasers offer exceptional precision, making them well-suited for intricate and detailed cutting applications. Their high beam quality allows for a finely focused spot, which results in sharp, clean edges with minimum material waste.
This level of accuracy is especially critical in industries such as aerospace and electronics, where precision is non-negotiable. With fiber lasers, manufacturers can achieve these results consistently, often eliminating the need for additional finishing work.
2. Energy Efficiency
Fiber lasers are known for their high energy efficiency, converting a significant portion of electrical power into laser light and minimizing energy waste. This efficiency translates to lower operating costs and a reduced environmental impact. Choosing this technology helps businesses save on energy expenses and promotes a more sustainable approach to manufacturing.
3. Versatility
Fiber lasers are exceptionally well-suited for direct part marking, offering unparalleled precision and versatility across a wide range of materials. From metals like steel and aluminum to non-metals such as plastics and wood, fiber lasers create detailed, durable marks that stand up to the demands of industrial and commercial applications.
4. Compact Design
Featuring a smaller footprint than many other laser types, fiber lasers are known for their space-efficient design. This compact form allows them to fit easily into existing setups, even in facilities with limited space.
This streamlined design optimizes space usage and simplifies workflow integration, enabling businesses to enhance productivity without needing extensive modifications. The result is a more efficient and adaptable operation that meets the demands of modern manufacturing environments.
5. High Output Power
Fiber lasers stand out in demanding applications that require intense, focused energy, thanks to their high output power. This capability ensures smooth, uninterrupted performance, even during continuous operation at elevated power levels.
Equipped with advanced heat dissipation systems, fiber lasers efficiently manage heat to prevent overheating and maintain stability during extended use. This reliability makes them ideal for applications where consistent, dependable output is critical.
6. Reliability and Low Maintenance
Two key advantages of fiber laser systems are their exceptional reliability and minimal maintenance needs. Their enclosed optical path protects the lasers from dust and debris, reducing the frequency of upkeep and ensuring consistent performance.
Fiber lasers maintain dependable operation even in challenging environments with extreme temperatures or vibrations. This robustness translates to smoother workflows, fewer interruptions, and greater peace of mind for businesses.
7. Cost-Effectiveness
Fiber lasers offer significant cost savings due to their exceptional energy efficiency and low maintenance requirements compared to traditional laser systems. Lower power consumption and minimal upkeep translate to reduced operational expenses. The solid-state design also minimizes the need for costly consumables and reduces repair frequency.
In high-volume production environments, this efficiency can accelerate return on investment (ROI) by lowering per-part processing costs and improving overall profitability, making fiber lasers a cost-effective long-term investment.
How Fiber Laser Marking Machines Compare with Other Lasers
Choosing the right laser for direct part marking is crucial for achieving high-quality results. While fiber lasers offer distinct advantages, it’s important to understand how they compare to other types. Let’s take a look at three different lasers and compare them:
Vs. CO2
Vs. Bulk
Vs. Direct Diode
1. Vs. CO2
Fiber lasers excel at marking metals, providing the speed and precision necessary for creating sharp, durable marks. Their focused, high-intensity beam delivers consistent results, making them ideal for applications where accuracy and clarity are critical, such as serial numbers or barcodes.
CO2 lasers, by contrast, are better suited for non-metal materials like wood, plastics, or acrylic. While they are excellent for detailed designs on these surfaces, they lack the efficiency and precision required for high-quality metal part marking, giving fiber lasers the edge for industrial applications.
2. Vs. Bulk
Fiber lasers offer unmatched stability and beam quality, essential for consistent and precise direct part marking. Their fiber-optic design ensures a consistently focused beam over extended distances, maintaining accuracy and detail for intricate marking tasks.
Bulk lasers, however, are typically used in applications requiring short bursts of high peak power, such as specialized material processing. While they may be cost-effective in environments where fiber systems are impractical, they lack the precision and reliability of fiber lasers for direct part marking.
3. Vs. Direct Diode
Direct diode lasers are known for their speed and efficiency, particularly with reflective materials like copper or brass. However, they lack the beam quality of fiber lasers, making them less suited for fine, intricate markings that demand high contrast and sharp detail.
Fiber lasers combine exceptional beam quality with robust performance, delivering precise and permanent markings across a variety of materials. Their reliability and low maintenance requirements make them the preferred option for industries requiring consistent, high-quality direct part marking.
Frequently Asked Questions About Fiber Laser Marking Machines
1. What are the initial costs associated with implementing fiber laser technology, and how do they compare to other laser systems?
Fiber lasers typically have a higher upfront cost compared to other laser systems, such as CO2 or direct diode lasers. This is due to their advanced technology, higher energy efficiency, and durability. However, the lower operational costs—thanks to minimal maintenance, no consumables, and reduced energy consumption—make fiber lasers a cost-effective choice in the long run, especially for high-volume production environments.
2. Are there any material limitations or specific applications where fiber lasers are not the most effective choice?
Fiber lasers excel at marking metals and certain non-metals like plastics and composites. However, they are less effective for marking materials like wood, glass, or fabric, where CO2 lasers perform better. Fiber lasers might not be ideal for applications requiring extremely high peak power in short bursts, such as bulk laser applications in medical or specialized fields.
3. What are the typical maintenance requirements and operational costs for fiber laser systems over time?
Fiber lasers require minimal maintenance due to their solid-state design and enclosed optical path, which protects them from dust and debris. This design eliminates the need for consumables like gases or inks, significantly reducing operational costs. Over time, businesses benefit from lower repair frequency, consistent performance, and reduced downtime, making fiber lasers a reliable and cost-efficient option for long-term use.
Getting the Most from Fiber Laser Marking
Fiber laser marking machines are renowned for their precision, speed, and efficiency, making them an excellent choice across several applications. Their low-maintenance design and energy efficiency reduce downtime and help lower operational costs, providing a reliable and cost-effective solution for modern manufacturing.
To get the most out of your fiber laser, it’s essential to select a system tailored to your specific needs — considering factors like the materials you’ll be marking and the required production speed. With the right fiber laser, you can enhance productivity, achieve consistently high-quality results, and position your operation for long-term success.
In manufacturing, that story is written with precision and permanence. From serial numbers to intricate barcodes, part markings ensure every component can be identified, traced, and trusted throughout its lifecycle. But how do you choose the right system to deliver these critical marks?
Laser marking is a valuable technology that has revolutionized product labeling and customization. However, like any powerful tool, lasers can be dangerous if not handled with care. Just as you wouldn’t give a chainsaw to someone without proper training, you shouldn’t use a laser without understanding its potential risks.
From relatively harmless Class 1 lasers to powerful Class IV devices, each laser type has its own unique hazards. Implementing comprehensive safety measures is important to protect workers and prevent accidents. This includes engineering controls, training programs, protective equipment, and regular maintenance.
By prioritizing safety, we can create a safer workplace and help maintain smooth and uninterrupted operation of laser marking equipment.
The FDA’s 21 CFR 1040.10 regulates performance and labeling requirements, while IEC 60825 is often used globally to assess safety risks. These guidelines help determine the proper usage of lasers, protective measures, and labeling requirements.
Class 1: Minimum or No Hazard
Class 1 lasers are the safest, typically found in everyday devices like barcode scanners and DVD players. They have low output power with beams less than .39 milliwatts (mW).
They’re designed to be harmless during regular use, and you won’t need any special protection when operating them. However, it’s important to maintain the equipment properly, as altering the device could make the laser more dangerous.
Class 1M
The subcategory of Class 1. While Class 1M lasers are generally safe for direct viewing, they can become hazardous when used with optical instruments like binoculars or telescopes.
This is because these instruments can concentrate the laser beam, increasing its intensity and potentially causing eye damage.
Class 1M lasers operate within a wavelength range of 302.5 nanometers (nm) to 4,000 nm.
Class 2: Low Risk but Caution with Direct Exposure
Class 2 lasers are considered low-power devices, typically emitting visible light with a power output of less than 1 mW. They are often compared to laser pointers, which are examples of Class II lasers.
While direct exposure to a Class 2 laser beam can cause discomfort or a temporary feeling of “spots” in the vision, they are not typically considered a serious threat to eye health as long as people avoid staring directly into the beam for extended periods.
Class 2M
Class 2M lasers are a subcategory of Class 2 lasers. While both are generally safe for direct viewing due to the human eye’s natural blinking reflex, Class 2M lasers can become hazardous when viewed through optical instruments, similarly to Class 1M.
The human blinking reflex is not fast enough to protect the retina from this concentrated laser beam. Therefore, it is crucial to wear appropriate eye protection when using Class 2M lasers with optical instruments.
Class 3: Eye and Skin Injury Risks
Things get more serious with Class III lasers. They come in two types in IIIa and IIIb:
Class 3a: Intermediate-powered continuous wave (CW) lasers, typically ranging from 1 to 5 milliwatts. Despite being relatively safe for short exposures, prolonged direct viewing can pose a risk to the eyes. The concentrated laser beam can deliver sufficient energy to the retina, potentially causing damage.
Examples: Laser levels and rangefinders
Class 3b: Higher-powered CW lasers with an output power ranging from 5 to 500 milliwatts.These lasers can pose a significant risk to both the eyes and skin, even with brief exposure. The concentrated laser beam can deliver a substantial amount of energy, potentially causing burns and tissue damage.
Examples: Laser surgery, laser cutting and engraving machines
Class 4: High Power, Severe Hazards
Class 4 lasers are the most powerful and the most dangerous. With an output power exceeding 500 milliwatts, they are used in industrial applications like cutting, welding, or even medical surgeries.
They can cause serious eye and skin injuries with even brief exposure, and because they’re so powerful, even reflected beams can be hazardous. Protective clothing, controlled environments, and strict safety protocols are a must when dealing with these lasers.
4 Best Practices for Laser Marking Safety
To create a safe environment around laser marking, it’s important to take a multi-layered approach. From built-in safety measures to proper training and protective gear, these best practices help protect your team and keep operations running smoothly:
When it comes to laser marking safety, the first line of defense is engineering controls.
Think of interlocks and shields as your laser system’s safety net. Interlocks automatically power down the laser if safety doors or covers are opened, preventing accidental exposure.
Shields or enclosure also play a key role by keeping the laser beam contained and protecting anyone nearby from harmful radiation or particles that may get kicked up during marking.
Proper training and clear communication are just as important as physical safety measures.
Every operator should know the risks involved and how to handle laser equipment safety. That means hands-on training about the machine and the different classes of lasers.
Adding clear, easy-to-read safety signs in work areas is another simple yet effective step. These signs should warn everyone of the laser’s presence and remind them to follow safety protocols.
3. Personal Protective Equipment (PPE) Requirements
The right PPE provides an additional line of defense in case engineering controls or administrative measures aren’t enough. Two of the most important pieces of equipment are:
Eye protection: Eye protection is non-negotiable. The right kind of safety glasses should match the laser’s wavelength and offer enough filtering to keep your eyes safe from the beam. Even a brief direct glance at a Class IV laser can cause serious eye damage.
Skin Protection: Don’t forget about the rest of your body! Lab coats, gloves, and face shields are your best friends when working with high-powered lasers. These prevent burns and protect against harmful fumes, which are common during laser marking.
4. Regular Equipment Maintenance and Safety Checks:
Keeping your equipment in top shape isn’t just about getting precise marks; it plays a big role in overall safety. Regular checkups—like cleaning lenses, testing interlocks, and realigning beams—help keep your laser system working as intended.
Over time, dust and debris can affect both the performance and safety of the equipment, leading to potential hazards or inaccuracies. Skipping maintenance can result in malfunctions, like a laser failing to shut off or a misaligned beam creating unsafe conditions for operators.
By sticking to a regular maintenance schedule, you prevent these small issues from growing into bigger, costlier problems. Ultimately, this attention to detail helps maintain safety standards while also extending the life of your equipment.
Safety Isn’t Just Recommendation
Laser marking safety involves more than just understanding how the machine works; it’s about taking a comprehensive approach to protect your team. By recognizing the hazards associated with different laser classes, implementing robust safety protocols like engineering controls and proper training, and consistently using the right PPE, you can significantly reduce risks in your workspace.
By following these best practices, you create a safer environment where productivity and safety can go hand in hand.
Trust the Experts in Laser Marking Safety
Navigating the complexities of laser safety requires expertise and precision. At Technomark, we specialize in providing advanced laser marking solutions that prioritize both efficiency and safety. With years of experience and cutting-edge technology, we’re here to keep your operations safe and productive.
Learn how Technomark can support your laser marking needs by visiting our Laser Marking Solutions page. Whether you’re implementing safety protocols or updating your equipment, our team of experts is ready to assist you in every step of the way.
Have you ever wondered about the small, square barcodes often found on electronic devices, tools, and appliances? While they might resemble QR codes, they’re actually Data Matrix codes, essential components of modern manufacturing processes.
Unlike QR codes, primarily used for consumer-facing applications like websites and social media, Data Matrix codes are designed for efficient data storage and traceability. They’re the only 2D barcodes officially approved by GS1 for regulated healthcare items, emphasizing their reliability and accuracy.
QR codes on the other hand are larger and contain more data, such as website URLs, and can encode information in numeric and alphanumeric form as well as Kanji and other multi-byte character sets.
No matter what industry, when it comes to industrial traceability for manufacturers, choosing the right type of code can leave a production run riddled with misinformation and the chance of getting lost.
Understanding the distinctions between QR codes and Data Matrix codes is crucial for manufacturers looking to optimize their processes. Both codes are two-dimensional (2D) barcodes and consist of a pattern of squares that can be read by a barcode scanner. However, there are notable differences in their shape, size, and data capacity.
What is a QR Code?
QR codes are two-dimensional barcodes scanned by smartphones or other devices with cameras. They store information in a matrix of black-and-white squares, which can be interpreted to reveal data such as URLs, text, or contact information. Think of them as digital links that can be quickly accessed by simply scanning them with your phone.
What is a Data Matrix Code?
Data Matrix codes are another type of two-dimensional barcode, but they are smaller and more compact than QR codes. They are often used in industrial settings, such as manufacturing and logistics, because they are highly durable and can be scanned even when damaged or dirty. Data Matrix codes are useful for tracking individual items or components throughout production, ensuring accuracy and efficiency.
Direct Part Marking
While both QR and Data Matrix codes are in the public domain and can be used royalty free, Data Matrix codes have become the standard for anti-counterfeit measures, part identification, and internal tracking because they feature advanced error-correcting techniques that are more robust than QR codes.
This presents a unique benefit for manufacturers that need to ensure their products can be identified if part of the mark gets damaged or impeded.
Particularly necessary for complex and high stakes industries such as medical, aerospace, and defense, where hundreds to thousands of components are needed in order to assemble a finished product, Data Matrix codes can be read even if up to 50% of the mark gets damaged.
QR codes on the other hand have steadily been adopted in consumer-facing applications. These codes can be found everywhere from business cards to product packaging, containing links to websites, resumes, premium offers, and even restaurant menus.
QR codes have a lower level error-correcting built in, and can be rendered useless with even slight ware and tare. Just 30% of a QR code needs to be damaged before it becomes unreadable.
While these codes are perfect for consumer-forward use, marking a component or part with a QR code presents a real danger for misidentification pending the mark gets damaged.
Data Matrix vs QR Codes | Uses Cases and Applications
Data Matrix
Supply chain traceability
Anti-counterfeiting through serialization
Part identification
QR code
Additional product information
Usage instructions
Social sharing
Auto-linking for spare ordering and registration
Promotions, contests, and gamification
Specifications of Data Matrix vs QR Codes
While Data Matrix codes are typically reserved for industrial use cases, both types of marks can play a role in the manufacturing industry.
Since both DataMatrix and QR codes are GS1 approved, they can carry any GS1 ID keys including:
Medical, manufacturing, transport and IT equipment
Loyalty scheme members, doctors at a hospital, library members
Automobile parts
Medical device
Beyond GS1, specifications and requirements for each code are presented by the International Organization for Standardization (ISO). For more about how these codes work themselves, and how to create them, you can check out the relevant ISO standard for more detail.
Best Practices for Implementing Data Matrix Codes in a Manufacturing Process
Implementing Data Matrix codes in a manufacturing process can significantly enhance traceability, efficiency, and accuracy. However, to fully leverage the advantages of this technology, it’s crucial to follow best practices tailored to the specific needs of your operations.
Best practices for implementing Data Matrix codes include:
Ensuring that the code is applied in a location on the part that is less likely to be damaged or exposed to harsh conditions.
Using direct part marking methods like laser marking or dot peen to create a durable, permanent code that can withstand wear.
Regularly testing and verifying the readability of the code throughout the production process.
Incorporating advanced scanning equipment that can easily read Data Matrix codes, even when partially obscured or damaged.
Consulting with an industrial marking expert to ensure the correct code placement, size, and method of application for long-term durability.
Frequently Asked Questions About Data Matrix and QR Codes:
How Do the Error-Correcting Capabilities of Data Matrix Codes Compare to QR Codes in Practical Applications?
Data Matrix codes have more robust error-correcting features compared to QR codes. They can still be accurately read even when up to 50% of the code is damaged, making them more reliable in harsh environments like manufacturing or logistics. QR codes, on the other hand, lose readability once about 30% of the code is damaged, making them more prone to failure in industrial settings where wear and tear are common.
Are There Significant Cost Differences Between Implementing QR Code & Data Matrix Code Systems?
The cost of implementing QR or Data Matrix codes can vary depending on factors such as the specific hardware and software used, the complexity of the system, and the volume of codes needed. In general, Data Matrix codes may be slightly more expensive to implement due to the specialized equipment required for their reading and writing. However, the long-term benefits of using Data Matrix codes, such as improved traceability and efficiency, can often outweigh the initial costs.
Are There Differences in Scanning Speed & Accuracy Between QR & Data Matrix Codes, Especially When Used in High-Speed Industrial Settings?
While both QR and Data Matrix codes can be scanned at high speeds, Data Matrix codes often have a slight advantage in terms of scanning accuracy. Their smaller size and denser data encoding make them less prone to misreading, especially in challenging conditions.
Direct Part Marking | Best Practices and Proven Methods
Understanding the differences between QR codes and Data Matrix codes, and choosing which is best for your application can get overwhelming. That’s why its important to consult a trusted advisor and partner.
Technomark has been operating and supplying expertise with industrial marking equipment since 2000. Since 2018, Technomark North America has been the only established OEM of dot peen and laser marking systems — the primary methods for direct part marking — with a headquarters in the USA.
Technomark has been at the forefront of industrial marking innovation, developing machines for seamless integration in manufacturing processes.
Our goal is to help our customers:
Increase machine uptime
Decrease total cost of ownership
Make part marking and identification simple and cost-effective
Bring new ideas to the table to increase efficiency
Your relationship with Technomark North America shouldn’t be limited to a strict supplier-to-customer interaction. We value communication above all else, which is why our team is dedicated to finding ways to solve your traceability challenges through a consultative process.
What commonalities do DVD players, checkout lines at the grocery store, and industrial marking machines all share? Lasers.
But alas, not all lasers are the same.
Do you know what L.A.S.E.R. stands for? Light Amplification by Stimulated Emission of Radiation. In other words, it’s a highly concentrated beam of light. Lasers consist of a:
Gain medium: A material that interacts with electrical currents to stimulate photons of light as they pass through.
Energy supply: Lasers typically receive their energy from electrical currents. These currents are “pumped” through the gain medium, stimulating atoms as light passes through. As the currents are pumped, the light accelerates within the gain medium.
A material to provide optical feedback: The materials selected for optical feedback serve one main purpose: steering the direction of the light beam.
Data Matrix codes are another type of two-dimensional barcode, but they are smaller and more compact than QR codes. They are often used in industrial settings, such as manufacturing and logistics, because they are highly durable and can be scanned even when damaged or dirty. Data Matrix codes are useful for tracking individual items or components throughout production, ensuring accuracy and efficiency.
