(888) 610-0151
Technomark North America

permanent marking

Dot Peen Marking Basics

What Is Dot Peen Marking?

, , , , , ,

Dot Peen Marking Basics

What Is Dot Peen Marking and How Is It Used?

In industrial manufacturing, it’s key to track every component, especially when producing large volumes. The way you mark your parts is important, especially if they have to go through tough conditions or complicated supply chains. While there are many ways to mark industrial parts, dot peen marking has been a reliable choice for years.

So, why do so many people still prefer it? And is it the right solution for your production line?

Basically, dot peen marking uses a stylus that quickly taps onto a part’s surface, creating marks. This makes permanent, easy-to-read codes without damaging the material.

One common headache for manufacturers is having tools that can’t adapt. Production lines evolve, and switching from manual to automated systems can get expensive if you have to replace all your equipment. A big plus for dot peen marking is how flexible it is. It works whether you have a small manual workshop or a fully automated factory. 

Thanks to their modular design, you can start with portable dot peen marking systems and later integrate them into your production line as your business grows.

 

Why is Component Traceability Important?

Before diving into the mechanics of dot peen marking, we must address the “why.” In today’s regulatory environment, component traceability is non-negotiable.

ISO standards and industry-specific regulations (such as AS9100 in aerospace or API Q1 in oil and gas) demand that parts be traceable throughout their lifecycle. If a valve fails on an oil rig, the manufacturer must be able to trace that specific component back to its production batch, material source, and date of manufacture.

Effective industrial part marking ensures this data travels with the part forever. Unlike stickers that peel off or ink that fades, direct part marking (DPM) creates a permanent record. This is where dot peen marking excels. By implementing robust component traceability protocols using dot peen machines, businesses protect themselves against liability and ensure rigorous quality control.

 

What is Dot Peen Marking?

At a high level, dot peen marking is a method of direct part marking that uses an oscillating stylus to indent a series of dots into a material, creating human-readable text, serial numbers, or Data Matrix codes.

 

How It Works

If you were to disassemble a dot peen marking machine, you would find a stylus tipped with carbide or diamond. Driven by either electromagnetic solenoids or pneumatic force, this stylus strikes the surface of the part rapidly. The dot peen marking machine plots these dots on an X/Y plane via electronic control, ensuring precise alignment and depth.

The result is a permanent, legible mark. Because dot peen marking relies on material displacement (pushing metal aside) rather than material removal (cutting or burning), it is considered a “low-stress” marking method. This distinction is important for industries where structural integrity cannot be compromised.

 

The Versatility of Dot Peen Machines

One of the primary reasons manufacturers choose dot peen machines is their adaptability. Industrial part marking isn’t “one size fits all,” and dot peen marking technology reflects that.

 

Material Compatibility

A dot peen marking machine can handle a vast array of materials. From plastics to hardened steel (up to 63 HRC), dot peen marking is effective on almost any substrate used in heavy industry.

Form Factor Flexibility

The hardware comes in various configurations to suit different workflows:

  1. Benchtop systems: Ideal for small parts brought to a station.
  2. Integrated systems: Designed to be bolted into an automated production line.
  3. Portable dot peen marking systems: These are crucial for marking large, heavy, or immobile assets.

 

Explore more of our industrial dot peen marking solutions here

 

Portable dot peen marking systems have revolutionized field operations. Instead of moving a heavy steel pipe to a marking station, an operator can carry the machine to the pipe. This flexibility makes portable dot peen marking systems a favorite in the oil and gas sector and for inventory management in large warehouses.

 

Why Choose Dot Peen Over Laser or Chemical Etching?

When evaluating industrial part marking solutions, buyers often compare dot peen machines against laser systems or chemical etching. 

Here is why dot peen marking often wins:

 

Cost-Effectiveness

Laser systems can be prohibitively expensive to purchase and maintain. A dot peen marking machine is typically much more economical, often costing less than $10,000. For businesses looking to improve component traceability without blowing the budget, dot peen machines may offer a faster ROI.

 

Durability in Harsh Environments

Chemical etching can fade, and shallow laser marks can be painted over or sandblasted away. Dot peen marking creates a physical indentation. Even if the part is painted, galvanized, or subjected to harsh weather, the mark remains legible. This permanence is essential for long-term component traceability.

 

No Thermal Shock

Laser marking uses heat, which can alter the chemical structure of the metal (the heat-affected zone). In aerospace or high-pressure applications, this thermal shock can create weak points. Dot peen marking is a cold process. It induces no thermal shock, preserving the part’s engineering properties.

 

Dot Peen Applications in Industry

Dot peen marking machine technology is ubiquitous across several key sectors where industrial part marking is mandatory.

 

Oil and Gas

Valves, flanges, and tubular products are exposed to extreme pressure and corrosive environments. Portable dot peen marking systems allow operators to mark these heavy components right in the yard. The deep marks created by dot peen machines ensure that even after years of use in the field, the component traceability data remains intact.

 

Aerospace

The aerospace industry has the strictest requirements for industrial part marking. Because safety is of the utmost importance, parts cannot be subjected to stress risers or heat damage. The low-stress nature of dot peen marking makes it the approved standard for engine components, landing gear, and structural elements.

 

Automotive

Automotive manufacturers use dot peen machines for Vehicle Identification Numbers (VINs) on chassis and engine blocks. These lines are often fully automated. However, repair shops and custom builders frequently utilize portable dot peen marking systems for aftermarket parts or engine rebuilds, ensuring compliant component traceability.

 

Advanced Features: Intelligent Driving Impact (IDI)

Not all dot peen machines are created equal. Advanced dot peen marking solutions feature Intelligent Driving Impact (IDI) technology.

In standard industrial part marking, marking a curved or uneven surface can be a nightmare. The stylus might miss the surface or strike too shallowly. IDI technology solves this by automatically adjusting the stylus level to the workpiece. Whether the part is flat, wavy, or curved, the dot peen marking machine maintains a constant depth.

This ensures high-quality component traceability marks regardless of the part’s geometry, significantly reducing the scrap rate caused by bad marks.

 

Integration and Mobility

The modern factory floor is dynamic. You need equipment that moves with you.

 

Automation Ready

For high-volume manufacturers, integrating a dot peen marking machine into an automated line is simple. These dot peen machines can communicate with PLCs to receive data automatically, ensuring the right serial number goes on the right part without human intervention.

 

The Power of Portability

For scenarios where automation isn’t possible, portable dot peen marking systems are the answer. Powered by high-capacity batteries, these units do not require compressed air lines or power cords. An operator can walk through a facility, applying industrial part marking codes to inventory on the fly. This mobility is a massive efficiency booster for component traceability audits.

Many portable dot peen marking systems are also modular. You can buy a portable unit today and convert it into a benchtop system later, providing ultimate flexibility for your growing business.

 

Future-Proofing Your Traceability

Component traceability is not just a box to check; it is a strategic advantage. It protects your brand, ensures compliance, and improves operational efficiency.

By investing in dot peen marking, you are choosing a solution that is durable, versatile, and cost-effective. Whether you need the brute strength of a benchtop unit or the flexibility of portable dot peen marking systems, there is a configuration to meet your needs.

Partner with Technomark for Uninterrupted Operations

Don’t let poor industrial part marking become a bottleneck in your production. If you have questions regarding dot peen machines or how to integrate a dot peen marking machine into your workflow, contact us today. At Technomark North America, we have the experience to help you get the best solutions for your industrial marking needs.

 

technomark north america

 

 

(Editor’s Note: This blog was originally published in September 2021 and was updated in December 2025.)

 

technomark-laser-marking

The Ins & Outs of Industrial Laser Marking Machines

, ,

 

The Ins & Outs of Industrial Laser Marking Machines

Industrial laser marking machines have become a trusted tool across many industries because of their ability to produce permanent, high-precision marks on a wide range of materials. From metals and plastics to specialized alloys, laser technology provides manufacturers with a consistent method for applying traceability information, product details, or even branding without physical contact or the need for additional consumables.

For companies considering this technology, the options can seem overwhelming. Different laser types, materials, and quality requirements all play a role in finding the right fit. Beyond the technical side, factors like throughput, integration with existing production lines, and long-term operating costs influence whether a machine will truly support a company’s goals.

This article explores how laser marking works, what sets it apart from traditional methods, and the considerations businesses should weigh when selecting equipment. Whether your priority is accuracy, durability, or efficiency, understanding the ins and outs of industrial laser marking machines can help guide a smarter decision for your operations.

 

 

Factors That Shape Results with Industrial Laser Marking Machines

To get a clearer picture of how laser marking delivers precise, lasting results, it’s worth looking at the elements that make up the process. Each factor, from the technology behind the laser to the characteristics of the material, directly affects performance and results.

A few important factors that make up this process include:

  1. Laser type: Different types of lasers are used for different types of marking applications. Generally speaking, a CO2 laser marking machine may be the best fit for plastics or polymers but not for stainless steel..
  2. Material: Different materials may require different laser parameters or even completely different types of lasers to achieve desired results. It’s important to consider the material’s properties before selecting a laser type.
  3. Quality requirements: The quality requirements of the applied mark determine which parameters must be considered during laser processing to ensure accuracy and precision. 

Some common laser parameters include:

  • Pulse rate
  • Line width
  • Speed
  • Power density
  • Dwell time (the amount of time the laser is applied to a single spot)
  1. Equipment used: Depending on your application needs there are many different kinds of industrial laser marking machines available on the market today – each with their own advantages and disadvantages that should be considered when making selection decisions.

Laser marking offers numerous advantages over traditional marking methods, including:

  • Stamping
  • Printing
  • Engraving

Laser marking is a fast, accurate, and permanent process. It can also be used to mark a variety of materials without the need for additional setup or alteration. The laser beam never touches the material being marked, making it possible to achieve high-precision marks with no significant post-processing required.

These features make laser marking ideal for precision parts and items that require both high accuracy and long-lasting markings.

 

 

Key Considerations When Choosing a Machine

There are several factors related to the product line and marking requirements that must be considered when choosing a laser marking machine. Here we will dig a little deeper into some of those factors, including:

  1. Marking requirements and specifications
  2. Material compatibility
  3. Marking speed and throughput
  4. Maintenance and operational costs
  5. Integration with existing production line
  6. Safety considerations

1.  Marking Requirements and Specifications

The marking requirements are important to consider when choosing among the options for high accuracy laser systems. The process should begin with an understanding of the specific needs of the product being marked, including its size, shape, material, and desired end result. 

For example, 

If a product requires detailed engraving that is outside of the capabilities of some machines, then a different option may need to be chosen. 

Additionally, depending on the material being marked or engraved upon, different laser types may be more suitable than others in terms of speed and quality.

It’s also important to consider how frequently the machine will be used and how many products it needs to mark per hour or day.

This will determine not only which type of laser marking system is most suitable but also whether faster systems require higher maintenance costs. Considering these factors can help ensure that the right machine is selected for the job.

 

2. Material Compatibility

The right laser marking system should be compatible with the materials that need to be marked or engraved. Laser engraving on stone, glass, or metal requires different laser types and power settings. 

For example, 

A CO2 laser marking machine is suitable for engraving woods, plastics, and some metals, but might not be able to mark stainless steel perfectly due to its higher reflectivity.

On the other hand, fiber lasers are more suitable for metals such as aluminum, brass, and titanium due to their higher power output. Therefore, it’s important to consider which material needs to be marked or engraved before choosing a laser marking machine.

 

3. Marking Speed and Throughput

Faster laser machines can process more work in less time, allowing businesses to realize faster cycle times and higher throughput.

Moreover, higher throughput can also enable businesses to take on bigger jobs that require more items to be marked or engraved in shorter amounts of time. 

For example, 

If a business needs to engrave 1000 parts per day, it will need a laser marking machine with high speed and throughput to meet its daily production requirements.

 

4. Maintenance and Operational Costs

In addition to the other considerations when choosing a laser marking machine, businesses should also be aware of the associated maintenance and operational costs. Regular maintenance is key to keeping these machines in optimal condition, as well as ensuring safety during use.

Operational costs will vary depending on the type of material being marked or engraved, including energy consumption levels and safety requirements that must be met. Businesses may also find that an integrated laser marking machine reduces downtime by streamlining workflows and minimizing setup.

In some cases, the cost of consumables like lasers may also add up over time. To ensure that businesses get the most out of their investment, they should factor in all long-term operational costs when selecting a laser marking machine.

 

5. Integration with Existing Product Line

When integrating a laser marking machine into existing product lines, several factors must be taken into consideration. 

The first consideration is whether a new machine is compatible with any existing product lines. An integrated laser marking machine makes it easier to maintain seamless communication with other systems in the production line. The potential for physical compatibility and system integration should be assessed before implementation. 

Next, the safety of any operators or users must be taken into account to ensure they can use the machine safely.

The laser marking machine should also be equipped with any necessary features for seamless integration with other production processes or products. It is also essential to consider the cost-effectiveness of installing such a machine and assess how it will fit within current budgets and operational expenses.

 

6. Safety Considerations

Safety is an incredibly important factor when it comes to the implementation of laser marking machines. Not only should any potential machine be capable of providing safe conditions for operators, but it should also have advanced features such as motion sensors and emergency stop buttons to respond quickly in cases of unexpected events.

All machinery must conform to necessary safety standards and regulations, both from the local legislation and from any international or industry-specific standards. Manufacturers must also provide extensive safety information about their products, including a detailed user guide that helps users understand how to operate the machine safely.

 

Applications of Industrial Laser Marking Machines

Industrial laser marking machines are used to mark metal parts with information such as serial numbers or expiration dates. Permanent laser marking helps these industries maintain their standards of reliability while providing a cost-effective solution.

In addition to the technical requirements of accuracy and longevity, lasers can also be used for more decorative applications, such as engraving images or logos. Industrial laser machinery is becoming an increasingly important part of manufacturing processes in high-tech industries due to its versatility, cost efficiency, and ability to create precise, permanent markings.

The following industries require reliable laser marking solutions to ensure long-lasting performance and accuracy:

  1. Automotive
  2. Aerospace
  3. Electronics
  4. Medical

 

1. Automotive Industry

In automotive manufacturing, precision and accountability are central to production. Laser marking supports these needs by creating durable, high-contrast codes that streamline inventory management, strengthen quality control, and make it easier to trace defective parts back through the supply chain. Datamatrix codes, in particular, are widely used to encode detailed part information in a compact format, ensuring reliable readability during inspections or recalls.

Beyond critical components like braking discs, laser systems are also applied to plastics, such as housings and connectors, where permanent identification is required without compromising structural integrity. The combination of speed, permanence, and adaptability makes laser marking a valuable asset for meeting the demands of high-volume automotive production.

 

2. Aerospace Industry

Aerospace components must withstand demanding environments, making accurate identification and traceability essential for ensuring safety and compliance. Laser marking excels in this space, offering the ability to permanently mark metals such as titanium, steel, and aluminum without weakening the part. Alphanumeric codes and 2D DataMatrix markings allow for comprehensive part tracking, ensuring manufacturers and operators can verify each component’s origin and performance history.

A common application is marking turbine blades — an area where readability, resistance to wear, and long-term legibility are important for traceability purposes. By having consistent part identification, laser marking systems contribute to efficiency in maintenance, certification, and lifecycle management.

 

3. Electronics Industry

With increasingly compact and complex designs, the electronics industry relies on laser marking for precise component identification and brand protection. The technology allows manufacturers to place permanent, high-resolution marks on small surfaces without damaging delicate circuitry or altering material properties. This capability supports efficient inventory control, compliance with labeling regulations, and greater transparency in the supply chain.

Laser marking also helps safeguard brand integrity by making it more difficult for counterfeiters to replicate product markings. In electronics, a CO2 laser marking machine can be handy for marking connectors and casings made of plastic. Whether applied to plastic connectors, PCBs, or micro-components, laser systems deliver clarity and permanence that printed or adhesive labels cannot match.

 

4. Medical Device Industry

In healthcare, reliable product identification directly supports patient safety and regulatory compliance. Laser marking provides permanent, biocompatible markings on medical devices, ranging from surgical instruments to implants and even smaller items, such as pacifiers. These markings improve readability for product IDs and traceability, which is vital in monitoring device use, sterilization cycles, and recall situations.

The medical device industry also benefits from laser technology’s ability to produce marks without introducing contaminants or compromising device functionality. By enhancing traceability and supporting quality of care, laser marking aligns with the strict standards set by organizations such as the FDA and ISO.

 

Partner with Experts for Your Laser Marking Needs

Choosing the right industrial laser marking machines is about more than just comparing technical specifications — it’s about aligning the technology with your production goals, material requirements, and long-term operating needs. From the type of laser used to the way it integrates into your existing processes, each decision shapes the reliability, efficiency, and overall value of your investment.

With so many variables to consider, having an experienced partner can make the selection process far more straightforward.

 

Explore Laser Marking Solutions with Technomark

If you’re ready to explore your options further, our experts are available to answer your questions and help identify the right solution for your business. The team at Technomark understands the challenges manufacturers face and offers guidance tailored to your applications, whether you’re focused on traceability, throughput, or durability.

You can also access our free resource for a deeper dive into laser types and selection considerations.

 

 

(Editor’s Note: This article was originally published in August 2023 and was recently updated.)

AF5478LASER

The Difference Between DataMatrix Code and QR Code

, ,

Industry codes are used for a number of processes in the manufacturing industry, but perhaps the most critical application is part marking. Part marking can be used to identify and track parts within production systems and supply chains, and there are many different types of industry codes that can be used for this purpose.

DataMatrix is one of the most popular direct part marking codes, and it’s used extensively in government and military applications due to its high-security level. The code consists of two-dimensional symbols embedded with information about the product or part being marked. This code is also resistant to environmental hazards such as UV light or chemicals, making it well-suited for harsh work environments.

Metal part marking is one of the oldest and most reliable methods for identifying components in manufacturing processes. The process involves using laser engraving technology to mark metals with various symbols or text-based codes that help identify the component being marked. Metal part marking can be done quickly and accurately, making it an ideal solution for businesses looking for an efficient way to label their parts or products.

5 Common Code Types

Metal part marking using certain code types is highly accurate, making it a reliable way to identify components for various manufacturing applications. Examples of those code types include serial numbers, which provide a way to quickly identify parts in manufacturing processes, while QR codes and DataMatrix codes offer more detailed information such as product specifications or assembly instructions.

They can also be used to track products through the supply chain or store other types of data like part or product expiration dates.
These are among the most common code types used in manufacturing:

  • Serial numbers
  • Barcodes
  • QR codes
  • UID marking
  • DataMatrix codes

1. Serial Numbers

Serial numbers are a popular type of code used in metal part marking. Serial numbers provide a means of tracking individual components, allowing manufacturing companies to monitor and control production lines more effectively.

They also allow for increased traceability and accountability, as each component can be easily identified at any time during the manufacturing process. Additionally, serial numbers allow for easy inventory management, ensuring that components are properly tracked from procurement to delivery. With serial numbers, businesses can better manage their stock levels and reduce waste by proactively addressing potential issues before they become problems.

2. Barcodes

Barcodes are commonly used to provide identification for individual components manufactured by businesses. Much like serial numbers, barcodes provide a means of tracking components, allowing companies to monitor and control production lines more effectively. In addition to traceability and accountability, barcodes also provide an efficient solution for inventory management.

Businesses can easily scan barcodes to keep accurate records of their stock levels with minimal effort. Barcodes are most commonly used in the retail industry where they are scanned at the point of sale in order to easily record and manage the sale of items. They are also widely used in many other industries such as manufacturing, warehousing, and distribution operations.

3. QR codes

QR codes are similar to barcodes but with the added benefit of storing more information. They can easily be scanned by most smartphones, making them a popular tool for marketing, product tracking, and customer engagement. QR codes are typically used for product labeling and tracking in supply chain operations. Businesses also commonly use them as a form of digital identification for their products, allowing customers to retrieve information about the item they are looking at quickly.

QR codes provide an efficient way for companies to track their products and keep accurate records while providing customers with an easy-to-use tool to access additional information about their purchases. Additionally, many consumer products are now marked with a unique QR code which allows companies to better track individual items through their entire lifecycle.

4. UID marking (Unique Identification)

UID marking, also known as Unique Identification, is an alternative to QR codes typically used in industrial and manufacturing applications. UIDs are encoded with a unique string of information that can be used to identify individual items or components within a larger production process.

This allows manufacturers to quickly and accurately track the lifecycle of their product during production, shipping, and ultimately in retail stores. In addition to providing accurate tracking of products throughout their lifespan, UID marking also offers companies the ability to access valuable data such as production date, batch code, expiration date and more. This information can then be used by companies for quality assurance purposes or for other analytics purposes.

5. DataMatrix codes

DataMatrix codes are a popular type of UID technology used in industrial and manufacturing applications. They are two-dimensional barcodes that contain encoded information regarding the product, such as production date, batch code, and expiration date.

DataMatrix codes can hold much more data than traditional linear bar codes, making it possible to identify individual items or components within a larger production process with greater accuracy. Additionally, these codes are significantly smaller than other UID types and can be read quickly, making them ideal for high-speed scanning operations.

Bring us your questions:

Understanding DataMatrix Code

DataMatrix codes are composed of two distinct components: the data and the error correction. The data component is a string of characters that contain information relevant to the product or item that it is associated with. This information can range from production date, to batch code and expiration date.

The error correction component, known as Error Correction Code or ECC, is used to detect any errors in the DataMatrix code, which makes it possible for scanners and other readers to still accurately read and interpret the code even if portions of it have been damaged or altered. The code is also capable of encoding a range of different data types such as numbers, text, URLs, images, and binary data.

This combination of data and error correction makes DataMatrix codes an ideal choice for UID technology in industrial and manufacturing applications. Their small size makes them easy to store while their ability to hold large amounts of data enables them to track complex production processes with greater accuracy than traditional linear bar codes. Furthermore, they can be read quickly, making them suitable for high-speed scanning operations.

DataMatrix codes are two-dimensional symbols made up of square and hexagonal modules arranged in a pattern. They can hold up to 2,335 alphanumeric characters and can be read from any direction.

DataMatrix codes are most commonly used in the automotive industry to track parts and components through the entire production process. They have also been seen in other industries such as aerospace and medical device engineering. In each of these cases, they provide detailed analytics on products throughout their lifespan and enable manufacturers to maintain accurate records of each part or component produced.
The Difference Between DataMatrix Code and QR Code
DataMatrix codes have unique shapes and sizes compared to standard barcodes and QR codes. While typical barcodes and QR codes are rectangular in shape, DataMatrix codes come in both square and circular designs. This makes them easy to distinguish from traditional barcodes and QR codes at a quick glance.

DataMatrix codes also offer better security than other types of industry coding systems due to their increased data capacity and ability to encode binary data. This makes it easier for malicious actors to decipher encoded information with the correct decryption key.

DataMatrix codes have numerous advantages over other types of coding systems. Their increased data capacity, unique shapes and sizes, and ability to encode binary data make them particularly secure against malicious actors attempting to access the encoded information. Their Error Correction Code (ECC) allows them to be scanned even if portions of the code are missing or damaged.

On the other hand, due to their increased complexity compared to standard barcodes and QR codes, DataMatrix codes require more specialized knowledge and technology for both encoding and decoding. This can lead to higher costs associated with the implementation and maintenance of the coding system.

In addition, DataMatrix codes are not as widely used as traditional barcodes and QR codes, which means that they may not be compatible with existing scanning hardware in many locations.

Best Practices for Direct Part Marking

When it comes to Direct Part Marking, proper placement and sizing of DataMatrix codes are essential for accurate scanning. In order to ensure that scanners are able to read the codes quickly and accurately, they should be placed in areas with minimal background interference.

The size of the code should be appropriate for the type of scanner being used – a code that is too small can be difficult to scan accurately. It’s important to make sure that the code is large enough so that when scanned, all of the encoded information can be captured in one pass.

It is also important to consider the durability of the code itself. DataMatrix codes are designed for applications in harsh environments, but it is still important to use a material that will resist damage from abrasion, chemicals, and extreme temperatures.

It’s also important to make sure that any direct part marking ink or other material used can withstand these conditions too. Additionally, proper application of the code is essential for readability – it must be applied correctly and completely for scanners to read it accurately.

Direct Part Marking | Navigating the Options Effectively

Direct part marking is a critical component of manufacturing processes, and it is important to understand the differences between various types of codes, including DataMatrix codes.

It’s essential to ensure the code size and material are appropriate for its intended environment, and that it is properly applied for accurate scanning. With these components in place, DataMatrix codes can provide a reliable means of identification and tracking in harsh environments.

 

Iron Out Your Part Marking Concerns with Technomark

Still have questions about the right code or marking approach for your product line? Consider this resource:

The abstract scene of fiber laser cutting machine cutting the sheet metal plate and the G-code data background.

Shining a Light on Laser Precision: Fiber Lasers vs. CO2 Lasers

, , , ,

xs inline laser up close in action

Precision manufacturing demands the right tools for the job. When every micron matters and quality standards soar higher each year, choosing between fiber lasers and CO2 lasers can make or break your production line efficiency. Both technologies have carved out significant market share, yet they serve distinctly different purposes across various industries.

Understanding the differences between these laser systems will help you make informed decisions for your specific applications. From energy consumption and maintenance requirements to engraving capabilities and material compatibility, each technology brings unique strengths to the table.

We’ll uncover a comparison between both laser types, their real-world applications, and performance metrics to help you determine which solution aligns best with your operational needs and budget constraints.

 

 

Understanding Fiber Laser Technology

Fiber lasers represent a leap forward in solid-state laser technology. These systems generate focused light beams through doped optical fibers that serve as the gain medium. The process begins when a seed laser beam passes through an optical fiber containing amplifying materials, then travels through a series of optical mirrors before emerging at significantly higher power levels.

The construction of fiber lasers offers several inherent advantages. Their solid-state design eliminates many moving parts found in traditional laser systems, resulting in enhanced reliability and reduced maintenance requirements. The fiber medium itself provides exceptional beam quality, enabling precise control over the laser output.

 

 

Key Advantages of Fiber Lasers

Fiber laser applications benefit from superior energy efficiency, converting up to 30% of input power into usable laser output compared to just 10-15% for CO2 systems. This efficiency translates to substantial cost savings over time, particularly for high-volume operations.

The wavelength characteristics of fiber lasers (typically around 1.06 micrometers) make them exceptionally well-suited for processing metals. This wavelength is readily absorbed by most metallic materials, resulting in clean cuts and precise marks with minimal heat-affected zones.

Maintenance requirements remain minimal due to the absence of complex mirror alignments and gas refills. Most fiber laser systems operate reliably for 25,000 to 100,000 hours before requiring significant service, compared to 1,000 to 5,000 hours for CO2 lasers.

 

 

Fiber Laser Applications Across Industries

The automotive sector has embraced fiber laser technology for critical marking applications. Serial number engraving on engine components, transmission parts, and safety systems ensures complete traceability throughout each part’s lifecycle. The permanent, high-contrast marks resist wear and environmental exposure while meeting strict regulatory requirements.

Electronics manufacturing leverages fiber lasers for marking identification codes on components. The precision achievable with fiber systems enables the processing of increasingly miniaturized components without compromising quality.

Medical device manufacturing represents another growing application area. Fiber lasers can mark surgical instruments, implants, and diagnostic equipment with biocompatible inks or direct surface modifications that withstand sterilization processes.

 

 

CO2 Laser Technology Fundamentals

CO2 lasers generate coherent light through an electrically stimulated gas mixture containing carbon dioxide, nitrogen, and helium. The resulting infrared beam operates at a wavelength of 10.6 micrometers, significantly longer than fiber laser wavelengths.

This longer wavelength provides unique advantages for certain materials and applications. The beam characteristics allow for excellent absorption by organic materials, including:

  • Wood
  • Paper
  • Leather
  • Plastics

The relatively broad beam profile enables efficient processing of larger surface areas.

 

 

CO2 Laser Strengths and Capabilities

Power scalability represents a significant advantage of CO2 laser systems. High-power CO2 lasers can deliver tens of kilowatts of power, making them suitable for thick metal processing and high-speed production lines. This power capability often exceeds what current fiber laser technology can provide at competitive costs.

The beam quality of CO2 lasers works particularly well for applications requiring broader focal spots or longer depth of focus. Engraving applications often benefit from these characteristics, as they can produce consistent results across slightly uneven surfaces.

Material versatility extends beyond metals to include ceramics, glass, and composite materials. The longer wavelength interacts differently with various materials, sometimes providing superior results compared to shorter wavelength alternatives.

 

 

Real-World CO2 Laser Applications

Woodworking industries rely heavily on CO2 lasers for engraving operations. Furniture manufacturers use these systems to create intricate decorative patterns and mark product information with exceptional detail. The result provides minimal post-processing, streamlining production workflows.

Textile and leather goods manufacturing employs CO2 lasers for engraving brand logos. The sealed edges produced by the performance of the laser often eliminate the need for additional finishing processes.

Medical devices benefit from CO2 lasers for engraving, providing precision and durability. Their unique wavelengths allow for detailed marking on materials like stainless steel and titanium, ensuring legible and long-lasting engravings for compliance and traceability in the medical field.

Automotive applications focus primarily on engraving operations for interior components, gaskets, and various polymer parts. The ability to process thick materials at high speeds makes CO2 lasers valuable for specific manufacturing processes.

 

Resource: See how our laser marking systems are used across industries — from automotive to medical and beyond. View Applications.

 

Head-to-Head Performance Comparison

Energy efficiency clearly favors fiber laser technology. Fiber lasers consume up to 50% less electricity than comparable CO2 systems, leading to significant operational cost reductions. This efficiency advantage compounds over time, particularly in high-utilization environments.

Precision capabilities vary depending on the specific application. Fiber lasers excel at fine detail work on metals, producing narrow kerf widths and minimal heat-affected zones. CO2 lasers perform exceptionally well on organic materials and can achieve excellent results on thicker sections where higher power levels prove beneficial.

Processing speed depends heavily on material type and thickness. Fiber lasers typically demonstrate superior speeds on thin to medium thickness metals, while CO2 lasers may hold advantages for certain thick materials or when processing non-metallic substrates.

Maintenance requirements strongly favor fiber laser systems. The solid-state construction eliminates gas refills, complex mirror alignments, and frequent component replacements. This translates to higher uptime percentages and lower total cost of ownership.

 

 

Material Compatibility Considerations

Metal processing applications generally favor fiber laser technology due to wavelength absorption characteristics. Stainless steel, aluminum, brass, and carbon steel all respond well to fiber laser processing, producing clean edges and precise marks.

Non-metallic materials often perform better with CO2 laser systems. Wood, acrylic, leather, paper, and many plastics absorb the longer CO2 wavelength more effectively, resulting in better edge quality.

Some materials can be processed effectively by both technologies, though the optimal choice depends on specific requirements such as edge quality, processing speed, and cost considerations.

 

 

Making the Right Choice for Your Application

Project requirements should drive the selection process. Consider the primary materials you need to process, required precision levels, production volumes, and quality standards. These factors will help narrow down the most suitable technology.

Budget considerations extend beyond initial purchase price to include operational costs, maintenance expenses, and potential productivity gains. Fiber lasers often provide better long-term value despite higher upfront costs.

Industry-specific requirements may mandate certain capabilities or certifications. Medical device manufacturing, aerospace applications, and automotive production each have unique standards that may influence laser selection.

 

Partner with Laser Marking Experts

Selecting the right laser technology requires careful consideration of your specific applications, materials, and production requirements. The choice between fiber lasers and CO2 lasers can significantly impact your operational efficiency, product quality, and bottom line.

 

Get Expert Guidance from Technomark

Technomark’s laser marking specialists bring decades of experience helping manufacturers choose and implement the right marking solutions. Our team can evaluate your specific applications and recommend the optimal laser technology for your needs. 

Contact Technomark today to discuss your laser marking requirements and discover how the right technology can enhance your production capabilities.

 

technomark north america

 

laser vs dot peen markings

Laser vs Dot Peen Marking Machines: Direct Part Marking By Industry

, , ,

 

laser vs dot peen markings

When every part counts, every mark matters. 

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 right marking 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.

Direct Part Marking Methods CTA

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.

 

Advantages of Dot Peen Marking:

  • 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:

  1. Consult with marking system experts
  2. Consider future scalability and adaptability
  3. 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.

Request a Demo

 

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.

 

IndustryDot Peen UseLaser Marking Use
Aerospace
Medical
Automotive
Defense

 

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.

Looking for more industrial applications? Take a look at our Industrial Applications page.

 

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. 

DM Techonmark Code

Data Matrix vs QR Codes: Choosing the Right Code For Your Needs

, , , ,

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. 

Let’s break down the differences and similarities between QR and Data Matrix codes and why the latter is the preferred choice of most manufacturers.  

 

QR vs Data Matrix Codes

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 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 CodeData 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: 

ID Key
Global Trade Item Number (GTIN)
Global Location Number (GLN)
Global Returnable Asset Identifier (GRAI)
Global Individual Asset Identifier (GIAI)
Global Service Relation Number (GSRN)
Component/Part Identifier (CPID)
Global Model Number (GMN)
Used to Identify
Products and services
Parties and locations
Returnable assets
Assets
Service provider
and recipient relationships
Components and parts
Product model
Example
Can of soup, chocolate bar, music album
Companies, warehouses, factories, stores
Pallet cases, crates, totes
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.

Requirements for Data Matrix codes are specified under the ISO/IEC 16022 international standard; while requirements for QR codes are specified under the ISO/IEC 18004 international standard.

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.  

Interested in learning more about Direct Part Marking using Laser Technology? Check out our free ebook below: 

Industrial Laser Marking Guide Download

technomark-marking-permanent-dot-peen-marking

Choose for Your Application: The Right Marking System in Industrial Facilities

, , ,

Part marking systems are crucial across various industries for tracking, identification, quality control, and regulatory compliance. Two popular methods for part marking are dot peen marking and laser marking. Each has its advantages, disadvantages, and typical applications based on factors such as material compatibility, precision, cost, and durability of the mark. Here’s a detailed discussion and comparison:

Dot Peen Marking

Dot peen marking involves a pneumatically or electromechanically driven pin that rapidly indents the material surface with dots to create numbers, letters, logos, or 2D Data Matrix codes. The resulting mark is a series of closely spaced dots forming lines or shapes.

This type of marking is widely used in automotive, metalworking, and aerospace for marking components where the durability of the mark is critical. This can range from the process of adding serial numbers on engine parts to VIN numbers and tool identification.

Dot peen is often preferred for harder materials and where surface deformation is not a concern, whereas laser marking offers broader material compatibility and is better for delicate or heat-sensitive materials.

Advantages of dot peen marking include:

  • The marks are deeply embedded into the material, making them highly durable and resistant to wear over time, even in harsh environments.
  • Generally less expensive than laser marking systems, both in initial investment and maintenance costs.
  • Effective on a wide range of materials, including metals, plastics, and harder materials.

Disadvantages of utilizing dot peen marking include:

  • Typically slower than laser marking due to the mechanical process of indenting each dot.
  • The mechanical impact may deform delicate parts or surfaces.
  • While precise, it may not achieve the fine detail possible with laser systems, especially on very small or complex designs.

Laser Marking

Laser marking uses a high-intensity light beam to slightly alter or ablate the surface material, creating high-contrast marks without contacting the material.

Techniques include engraving, annealing, etching, and foaming, depending on the material and desired effect.

Laser marking wins in precision and detail, making it preferable for industries requiring intricate designs or small text. It is considered ideal for barcodes, UID codes, QR codes, and detailed logos.

 

 

Laser marking is commonly used in:

  • Electronics
  • Medical devices
  • Aerospace
  • Jewelry
  • Applications where precision, minimal part damage, and aesthetic quality of the mark are paramount.

Three main advantages of laser marking are as follows:

  • Capable of producing highly detailed, precise marks with excellent resolution. Suitable for small text, complex logos, and even photographic images.
  • Can mark a wide range of materials, including metals, plastics, ceramics, and even sensitive materials without damaging them.
  • Fast marking process due to the non-contact nature of the laser, which can move quickly over the target surface.
    Easily programmable for variable data (e.g., serial numbers), integration into production lines, and minimal maintenance.

Meanwhile, some disadvantages of this marking system include:

  • Higher initial investment and operating costs compared to dot peen marking
  • Safety precautions necessary due to the use of high-powered lasers
  • Certain materials may not mark well or require specific laser types (e.g., fiber, CO2, UV) to achieve the desired contrast or effect.

Note: The size of the parts can also be a factor, as even huge parts can easily be marked with a handheld dot peen marking system, while lasers are not developed to the point they can be utilized for large parts.

Comparing Dot Peen and Laser Marking

Laser marking offers unparalleled precision and flexibility for a wide range of materials and applications, while dot peen marking provides a cost-effective, durable solution for simpler marking tasks.

The choice between dot peen and laser marking ultimately depends on the specific requirements of the application, including:

  • The type of material
  • The desired mark quality and durability
  • Production speed
  • Budget constraints

Marking System Choices | Next Steps

Laser marking and dot peen marking are both widely used in industrial applications for the permanent marking of parts and products, but they differ significantly in their mechanisms and outcomes.

Laser marking utilizes a high-intensity light beam to etch or mark the surface of a material, allowing for precise, high-resolution marks including barcodes, QR codes, and intricate graphics, while dot peen marking involves a pneumatically or electromechanically driven pin that physically impacts the surface to create dots forming numbers, letters, or simple logos. Both are useful in any number of industries – depending the needs and expectations of the product line in question.

Investigate the Options, Starting with the Laser Marking System

Our Part Marking page offers a detailed look at the types of lasers and benefits of each, as well as the benefits of dot peen marking as an alternative. The guide also shares info on the type of mark needed and the materials you are marking during production. Take a look:

Alphanumérique + logo CE curve MP-web

Efficiency in Dot Peen Marking Systems Automation

, , ,

 

Effective part-marking is indispensable for ensuring seamless component traceability in the industrial manufacturing sector, particularly when dealing with large quantities. Among the various part-marking options available, Dot Peen marking technology has stood out as a preferred solution over the years.

Dot Peen marking machines use electromagnetic or pneumatic force to rapidly oscillate a stylus, creating indents on the part’s surface. Notably versatile, Dot Peen technology adapts well to both manual and fully automated production lines. While commonly employed in manual applications, the flexibility of modular Dot Peen systems allows for an initial portable setup, which can later be seamlessly transformed into an in-line system for integration with fully automated production lines.

 

The Need for Automation

While dot peen marking is a well-established method of ensuring traceability, it comes with challenges. These include the need for an in-depth understanding of the process, the right direction for the machine, and using the wrong methods for the material the product is made of. 

Today’s industries prioritize timelines and the reliable delivery of products. With that in mind, there is an increase in the need for efficiency to ensure deadlines are met. Incorporating automation into production lines, particularly for part marking, has led to significant progress in addressing and resolving efficiency issues. 

 

Technical Aspects of Automated Dot Peen Marking

As marking systems continue to evolve, the benefits of utilizing these systems can’t be ignored. These systems offer avoidance of downtime via their capability to:

  •    Improve speed and throughput
  •    Increase consistency and accuracy
  •    Reduce human error
  •    Enhance traceability

These systems incorporate innovations applied elsewhere to pair reliability and established problem-solving methods to streamline the part marking process. 

   Integration with Other Systems

Dot Peen marking systems can be integrated with any system. Portable, in-line, and bench models provide the options needed to maximize the efficiency of your traceability system. Automated options mean better versatility for your dot peen marking and reduced need for human oversight of that aspect of production. 

   Software Capabilities for Automation

Software has advanced to allow for control of the automation process from outside the facility if you so choose. Meanwhile, the control and adjustment via software means better control and improved marking accuracy. 

   Customization Options for Specific Industrial Needs

Permanent part marking means reliable part marking for product identification purposes throughout the product’s life span. Both dot peen marking machines and laser marking options offer the versatility to mark a product with a serial number, Datamatrix, logo, or other pattern as required. This then can be used to track the product through its production and installation – and beyond. 

For more precise orientation and focus, the laser technology may be helpful. Meanwhile, dot peen marking is a long-trusted method of part marking that provides a mark that impacts the surface via a succession of dots. This method is hard to wear away or otherwise deteriorate, leaving it easy to read for long periods. 

From automotive parts and aerospace applications to the oil and gas industry, many industries utilize these marking systems to increase traceability and reliability in part identification into the future. 

 

Trends and Innovations

With current trends in dot peen marking automation, the flexibility and ease of operation only continue to streamline the marking process. Products have reached the market that are portable and not tied to any specific area of the production line. Rather, the use of a secured WiFi connection means the control can be trusted to an operator’s cellphone. In turn, this portable marking machinery can be used in both indoor and outdoor work environments. 

The product that requires marking can be of any size and still be within the marking capabilities of the marking system – provided it is made of one of the many materials these systems handle with no issue. These products also come with improved battery life, ensuring an entire day’s work can be completed without requiring a recharge of the unit needed for the marking process. 

 

Considerations for Implementation

For those considering automation for part marking, there are numerous factors to evaluate before incorporating automation. These range from your WiFi connection security level and reliability to the level of training necessary to bring your staff up to speed with this pivot in control in the marking process. 

 

Consider these resources to evaluate your readiness for automation in your marking system: 

10 Industrial Part Marking Considerations

The Ins & Outs of Industrial Laser Marking Machines

Dot Peen Marking Machines & Efficiency | Final Thoughts

Dot peen marking is widely accepted as reliable and efficient in providing traceability solutions that are prioritized in today’s fast-moving but transparent society. With this in mind, it only helps to improve that reliability with the incorporation of automation to facilitate the programming and fulfillment of the part marking process. 

Before you go… 

It’s normal to still have questions at this point. If you are still considering your best next steps, our resource on part marking considerations could also be helpful: 

Datamatrix laser marking automotive part

Direct Part Marking & Deconstructing Data Matrix Codes

, , , ,

Commerce has come a long way from the bartering system. When currency became the acceptable medium of exchange, it only made sense that a better system of marking products was needed. 

The first barcode was created in 1952, but they weren’t put into use in commerce and the transaction process until 1974, when a pack of Wrigley’s gum was scanned in a supermarket in the state of Ohio. 

Barcodes have become widely used and have been upgraded and improved in an ongoing process. From the days when a barcode took up a significant amount of the packaging and contained limited information to today’s Data Matrix codes that are significantly smaller and can hold more data, the barcode development process has been fast and focused on efficiency. 

Here we will focus on Data Matrix codes, their importance, their history, and an in-depth look at:

  1. How they’re generated
  2. How they differ from other marking processes
  3. What industry these are most common in and on which type of materials and parts are they commonly found 

More

BAND-IT technomark partnership

TECHNOMARK Partners with BAND-IT

,

TECHNOMARK and BAND-IT join forces to offer manufacturers and MRO facilities total integrated solutions for permanent marking of metal ID bands used for asset tracking and quality control.

Technomark North America has partnered with BAND-IT Identification Solutions to provide a permanent marking solution for BAND-IT metal ID bands in a high-volume production environment. 

BAND-IT colored bands are used for frac iron recertification, asset management, and other visual identification programs. BAND-IT COLOR-IT® technology resists weathering and color fading, with 16 stocked colors available for same-day delivery and custom powder coating available for non-standard colors. BAND-FAST® preassembled band and clips allow for a safe, quick installation. 

BAND-IT marking integrations are available for both the Multi-4 dot peen marking system and Graphix laser marking workstation with 3-up BAND-IT metal ID band loading fixture. The custom tooling solutions for Technomark industrial marking equipment increase production throughput and lower total cost of ownership. 

Technomark has been operating and supplying expertise with industrial marking equipment since 2000. In 2018, Technomark established a direct OEM presence in the USA with the opening of Technomark North America. Today, Technomark North America is the only OEM of dot peen and laser marking systems with USA headquarters located in the south-central United States. Our centralized location lowers your total cost of ownership (TCO) by reducing shipping costs and delivery lead times, propelling Technomark to become the fastest-growing brand of permanent marking systems in the Americas region. 

BAND-IT, a unit of IDEX Corporation, is the world’s leading designer and manufacturer of engineered fastening solutions. Whether it’s your family driving cross-country, workers on an oil rig at sea, astronauts in space, or military troops deployed around the world, the equipment that moves them has been designed for safety and security under harsh conditions. That’s why airbag manufacturers, energy companies, the aerospace industry and our own military trust the quality, durability and diverse fastening capabilities of BAND-IT clamps. When it’s not just mission critical, but mission crucial, it better be BAND-IT! 

For more information, contact us at info@technomark-inc.com

technomark north america