(888) 610-0151
EASTEC 2023: Technomark North America is Prepped for Your Questions

Part marking

Graphic_for_Trade_Show_LP_Final-01

EASTEC 2023: Technomark North America is Prepped for Your Questions

, , ,

 

 

Are you a manufacturing professional looking to stay ahead of the curve? If so, EASTEC 2023 is the event for you! This three-day conference and expo will allow attendees to learn from industry experts, explore new products and technologies, and gain valuable insights into modern manufacturing processes.

Technomark will be in Booth 3157 May 16-18 at the Eastern States Exposition in West Springfield, Mass. If you want to stop by and have parts marked live, registration for the event is open. Remember to register with Technomark’s promotional code: 16253977E. This will make badge creation free for those interested (normally $50).

EASTEC | What to Expect

Attendees will have access to industry-leading manufacturers and suppliers, allowing them to gain valuable insights into new products, processes, and technologies. In addition, EASTEC 2023 will feature interactive workshops, seminars, and panel discussions with industry experts.

The schedule for this year’s event includes a number of speakers:

  • Michael Carroll, VP of Innovation and Transformation at Georgia-Pacific
  • Mark Michalski of Forge
  • Craig Owens, Systems Engineer, Principal, and Corporate SBIR Program Manager at Lockheed Martin
  • Roger Landolt, Senior Software Solution Manager at ZEISS Industrial Quality Solutions

There will also be four panel discussions, focused on:

  • How not to fail in your transformation journey
  • Pathway to technology adoption
  • Manufacturing industry and economic outlook
  • Data, trends, and what’s being done

Workshops during the upcoming EASTEC show will highlight the following areas:

  • “GD&T: Why Do we Hate, Love and Need it for Manufacturing Excellence?”
  • “Smart Manufacturing – Why It Matters and How to Achieve It”
  • “Adopting and Optimizing Additive Manufacturing”

Why Attend EASTEC?

EASTEC is a unique and remarkable manufacturing trade show that offers an opportunity to learn, explore and discover the latest advances in technology and manufacturing.

This event provides an excellent platform for attendees to learn from top leaders in their respective fields and network with others in the manufacturing community.

By attending EASTEC 2023, you will join thousands of other professionals in the manufacturing industry who are looking to stay ahead of the curve. With networking opportunities and the latest technological advancements, there’s something for everyone.

4 Things to Do in Springfield

Not all of your time will be spent at the exhibits and workshops during EASTEC 2023. Once you have grabbed a bite to eat, consider one of these options for entertainment:

1. Visit the Springfield Museums to learn more about the history of Springfield and its diverse culture. Storrowton Village Museum, for example, offers insight into early 19th-century life.
2. Enjoy a scenic ride on the Springfield trolley along this vibrant city’s rivers, valleys, and historical sites. Visitors can explore numerous historical sites throughout the city that reflect this varied past, from the Springfield Armory National Historic Site, which preserves one of America’s most important military landmarks, to Duryea Way honoring James Duryea, who made significant contributions to automobile production during his lifetime.
3. Explore the Forest Park Zoo of Springfield and its many exotic animals. Located on the banks of the Connecticut River, this vibrant and educational zoo offers visitors an up-close look at some of nature’s most exotic creatures. From majestic tigers to tiny tree frogs, there are plenty of animals to observe and learn about in this unique setting. In addition to its impressive animal collection, the zoo also features interactive exhibits allowing visitors to get closer to their favorite creatures.
4. Visit the Naismith Memorial Basketball Hall of Fame, located in Springfield. The museum offers information on more than 400 inductees and over 40,000 sq. ft. of basketball history – drawing more than 200,000 visitors each year.

The Countdown is On

When it comes to a CNC trade show, the right ones provide access to information on new technology and networking opportunities to connect with new suppliers. EASTEC 2023 provides these resources and more. Don’t forget to register! Technomark staff will be waiting at Booth 3157.

Can’t Make it to EASTEC?

Our experienced staff is available to discuss all things part marking. If you want to learn about laser marking, consider reading through this resource:

"*" indicates required fields

Name*
This field is for validation purposes and should be left unchanged.

automotive component marking

Direct Part Marking 101 | Automotive Component Traceability

, ,

The number of components used to manufacture vehicles has doubled over the past decade. This means more parts to 

  • keep in inventory
  • track during production 
  • evaluate throughout the life cycle to pinpoint issues 

Automotive part marking requirements are intended to help with all of the above processes. This means accuracy and readability are crucial for the purpose of laser marking automotive parts, and it doesn’t hurt to have a process that makes traceability easier. 

 

Meeting Automotive Industry Standards

The automotive industry is duty-bound to provide safe and reliable vehicles to consumers. With new models of integrated marketing equipment and technology introduced each year, it’s important to have a method of tracking parts when issues arise and a recall becomes necessary. 

In recognition of the importance of recalls and safety, the automotive industry has set high standards for product identification. Automotive parts identification is required, but it also provides several benefits: 

  1. A product can be marked with serial and part numbers, barcodes, and other information. 
  2. Items can be tracked throughout their entire lifecycle.
  3. No need for traditional labels prone to fading or falling off. 
  4. By using 2D barcodes, manufacturers can identify very small items and parts and include more data than in a linear barcode.
  5. Improved error prevention for just-in-sequence (JIS) production.
  6. Reduced risk of counterfeit parts because part marking is difficult to duplicate.

Part marking is a process used to identify automotive components, improving quality control throughout the production and life cycle of a vehicle. With vehicle components increasing and shrinking at the same time, automotive part marking becomes ever more important in order to properly track and evaluate all these components.

Traceability is also an important factor when it comes to automotive part marking, as it helps determine where each component came from and how it was made. 

As such, accuracy and readability are essential for automotive part marking to be useful for the manufacturer With the right part identification methods in place, automotive manufacturers can:

  • Meet industry standards
  • Ensure the safety and reliability of their products
  • Improve future designs

JIS production is a technique where parts are delivered to the assembly line in a manner that perfectly synchronizes with the automotive manufacturing process. Timely and precise delivery allows automotive manufacturers to make efficient use of their resources while also reducing costs. Automotive part marking plays an important role in JIS production by minimizing and ensuring production runs smoothly.

 

The Importance of Traceabilityautomotive component marking

The automotive industry is relying more and more on automotive traceability requirements to ensure the quality and safety of its products. Part marking requirements are essential in helping automotive companies trace, manage, and evaluate components over the entire life cycle of a vehicle.

The implementation of direct part marking has:

  • Helped with recall management
  • Improved part identification on flexible assembly lines
  • Improved chain of custody tracking, avoiding product diversion

Recall Management

Traceability provides an easy way to identify faulty parts. With part marking, automotive companies can identify the specific source of a faulty component, enabling them to contain and isolate problems quickly and reduce losses.

Improved Part Identification During Assembly

Automated process control systems require accurate data input for maximum efficiency, and part markings help provide that accuracy. Additionally, integrated marking equipment along the automotive production line can read and store this data to optimize the build and speed up production.

Chain of Custody Tracking Improvements

Automotive companies that use part marking are able to correctly fulfill customer requirements. Strong chain of custody tracking and the ability to avoid product diversion helps automotive companies deliver quality parts on time and keep track of what goes where in case problems arise.

 

Dot Peen vs. Laser Marking Automotive Parts

There are numerous methods of direct part marking that can be used for parts exposed to harsh conditions, such as vehicles that traverse a variety of terrains. Dot peen marking and laser marking are two popular methods used in the automotive industry. Both have advantages and disadvantages to consider before committing to the investment associated with your preferred method. 

Dot Peen

Dot peen is a method that involves striking the metal or product material (typically metal) with a marker that knocks away a small amount of material to leave a readable mark.

Advantages of dot peen marking include: 

  • Lower cost.
  • Durable and permanent mark
  • High marking speed
  • Minimal stress (mechanical only)

The disadvantages of dot peen marking include limited usefulness. In terms of materials, this method is effective for metal and plastic, but not others. The dot peen marking process also exposes parts to mechanical stress, which can weaken the component and increase the risk of part, and has the potential for increasing the occurrence of defects. 

The M4 inline and automation pack can help optimize marking for automated production: https://www.technomark-inc.com/solutions/integrated-use/m4-inline/  

Laser Marking
Laser marking is a non-contact method that marks parts using a precise beam. The Direct Part Marking laser has a higher rate of permanency and accuracy.

Other advantages of laser marking include:

  • Permanent & accurate mark
  • High-Quality mark that can be applied to many materials
  • Can be done at high speeds; high contrast
  • Resistant to heat and liquids

However, there are disadvantages to recognize as well. These include both higher costs for a laser marking device and issues when materials are exposed to mechanical stress. The energy cost for the laser in question depends on the type used. 

Graphix Inline provides flexibility in marking depth and offers a solution for a variety of materials: https://www.technomark-inc.com/solutions/integrated-use/graphix-series-inline/ 

Integrating New Part-Marking Technology Into Your Process

Part coding and identification help reduce counterfeits and improve the success rates of recalls. This in turn has improved safety rates for vehicles and the ability to make the next design better. 

With an ever-increasing number of parts used in vehicle manufacturing, now’s the time to audit the potential expansion of your traceability solutions. Whether you’re a contractor or handle marking in-house, and whether you prefer dot peen or laser, review the latest technology and best practices. Don’t get left behind by traceability and automotive part marking standards. 

 

For further information on automotive applications for part marking technology, consider this resource: 

https://www.technomark-inc.com/applications/automotive/

Laser Marking Machine Engraving. Manufacture of plastic water pipes factory. Process of making plastic tubes on the machine tool with the use of water and air pressure.

Laser Marking Source | Laser Types & Selection Considerations

, ,

Laser part marking requires an understanding of both the engraver that will best fit your application requirements and the laser source that will provide the best mark. There are a variety of laser sources, and we will highlight three types, as well as two subtypes, of the best laser-marking technology and outline the best choice for the material you are using and the depth of the mark you require to meet regulatory requirements.

5 Laser Sources Based on Wavelength

Laser part marking is common in a number of industries because it is effective for long-term part identification and meets the rigorous standards set forth for aerospace, mechanical, and other high-demand industries.

However, each industry has specific needs when it comes to the product, and the potential damage to the product if the wrong laser is used. The equipment you need is part of the process, but from there the laser that is best is the next point to consider.

With that in mind, we can take a look at five of the commonly used lasers and the best use case for each:

 

  1. CO2 laser
  2. Fiber laser
  3. YAG laser
  4. Green laser
  5. UV laser

 

1. CO2 Laser

CO2 laser marking is a popular laser engraving and marking solution because of its ability to mark non-metallic materials. It’s efficient in marking a variety of non-metals, too, including:  

  • wood
  • plastic
  • glass
  • textiles
  • cardboard

The CO2 laser produces an infrared laser beam and uses CO2 gas as the active medium. The laser is emitted at 10.6 micrometers and features high beam quality, allowing it to focus laser power into a small spot and produce high-quality laser marks. This laser has the longest wavelength, which is located on the invisible infrared spectrum. 

This laser is efficient for cutting some materials and for personalizing products. However, this type of laser also requires more maintenance and uses more energy. 

 

2. Fiber Laser

The abstract scene of fiber laser cutting machine cutting the sheet metal plate and the G-code data background. The hi-technology sheet metal manufacturing process by laser cutting machine.

Another laser source is fiber laser marking, which also offers the ability to mark non-metallic surfaces with a high degree of accuracy. This laser source utilizes a shorter wavelength than a CO2 laser and uses a fiber optic laser device to emit laser beams at a wavelength of 1.064 micrometers. The wavelength produced is located in the infrared spectrum.

It quickly and accurately produces laser marks on materials such as:

      • plastics
      • metals
      • rubber
      • glass

 This laser source also offers the ability to be tuned for specific applications with easily adjustable settings. 

A fiber laser can also be used for embossing or to add discoloration where desired. The discoloration process with a fiber laser provides a variety of colors and better control simultaneously. 

The fiber laser is the most commonly used in the laser marking industry, particularly common in aerospace, metallurgy, automotive, and mechanical applications. It’s useful for all types of metals and has a long lifespan when compared to other lasers.

 

3. YAG Laser 

The YAG laser operates on a wavelength similar to the fiber laser (1.064 micrometers). However, this type of laser has a different structure than a fiber laser and the beam passes through different crystals in order to create the beam. 

The YAG laser is ideal for marking metals and plastics in its more widely recognized configuration. However, it can be adjusted to mark more sensitive materials as well. 

4. Green Laser

The green laser, the first subtype of the YAG laser, is the only laser with a wavelength in the visible spectrum. This allows manufacturers to mark many sensitive materials, such as: 

  • polymers
  • plastics
  • rubber 

The green laser is ideal for these sensitive materials because its wavelength is located near the UV spectrum generates less heat. 

5. UV Laser

The UV laser is another subtype of the YAG laser. Thanks to implanted crystals, it became possible to adjust the wavelength for this laser and utilize others, providing access to the only laser in the invisible ultraviolet spectrum (0.355 micrometers).

The UV laser has the shortest wavelength used in the laser marking field and as such is relied upon for markings on fairly sensitive materials.

This laser also makes it possible to carry out “cold markings” — which means manufacturers can avoid the degradation of parts due to the heat. This laser is  used for marking solar panels, electrical components, and other parts that require a refined approach.

 

6 Ways to Choose a Laser Marking Source

Planning production of your next line means a lot of considerations. These include the material you will use and the speed you can expect products to be completed. Meanwhile, several of those factors also influence the choice of laser: 

  1. Material to be marked 
  2. Mean time between failures (MTBF)
  3. Depth of mark needed
  4. Laser maintenance needs
  5. Speed of marking process
  6. Ease of settings adjustment

 

1. Material to be Marked

With the variety of materials used in production, it makes sense to prioritize the materials when considering a laser source. For more heat-sensitive materials, it’s important to find the right laser and access one that is easily adjustable. 

 

2. Mean Time Between Failures (MTBF): 

The Mean Time Between Failures (MTBF) is a guideline of how reliable your laser will be based on its hours of operation. Each laser has a different expectation — and keep in mind these are mean times, not a guaranteed lifespan. Some lasers have a longer MTBF but can fail in a shorter period of time than expected 

While the fiber laser has an MTBF of 100,000 hours, CO2 lasers have a significantly shorter MTBF of 30,000 hours. This is a crucial factor to keep in mind while choosing the best option for your production cadence. 

 

3. Depth of Mark Needed

Some lasers are singled out for the ability to make deeper marks than others. For certain regulations and standards, the laser with a deeper marking capability would be the preferred choice. 

Meanwhile, other materials require a lighter mark that doesn’t cause damage. Therefore, the depth of the mark is a key factor in laser source choice. 

4. Laser Maintenance Needs

Some lasers require more maintenance than others. This means a commitment of more of the budget and possible interference with production timelines if maintenance is required frequently. 

5. Speed of Marking Process

Your production timeline is important both for your revenue and to help your clients meet their own projected deadlines. As such, the marking process needs to be completed in a timely manner. 

Note: Depending on the material to be marked, the right laser source makes a difference in meeting that timeline and getting behind due to lengthy marking processes. If laser marking isn’t the answer at all, there’s always dot peen marking. 

6. Ease of Settings Adjustment

In some industries, the laser will need to be adjusted for separate part lines or stages in the production process. In these cases, it is more cost-effective to find a laser that can be adjusted easily. This better facilitates effective marking on the desired timeline. 

 

Which Laser Marking Source is Right for Your Production Needs?

With three laser marking types and two subtypes, it should be a reasonable process to narrow down the best laser for an application based on the factors involved. Your production line requires a certain type of mark and you have an expectation of how long that mark will last.

The right laser marking source means faster delivery of products that carry distinct markings to fit your clients’ needs. 

 

Don’t Waste Money and Lose Project Momentum

If you have questions about the right laser source for your project, it’s time to talk to our experienced Technomark staff. Reach out today, and we can help point you in the right direction. 

Laser_Marking_CTA-01
DM Techonmark Code

Understanding the Differences Between Data Matrix vs QR Codes:

, , , ,

If you’ve ever opened a new electronic device, tool, or home appliance, chances are you’ve seen a Data Matrix code.

While you may have thought it was a QR code, Data Matrix codes are an essential part of most manufacturing processes and act as an efficient means for component traceability. Data Matrix codes are also the only 2D barcode to have GS1 approval for regulated healthcare items. 

QR codes on the other hand are larger and contain more data, such as website URLs, and are capable of encoding information not just in numeric and alphanumeric form, but also in 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 the majority of manufacturers.  

 

Direct Part Marking | QR vs Data Matrix Codes

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

QR code

  • Supply chain traceability
  • Anti-counterfeiting through serialization
  • Part identification
  • 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

Used to IdentifyExample

Global Trade Item Number (GTIN)

Products and servicesCan of soup, chocolate bar, music album

Global Location Number (GLN)

Parties and locations

Companies, warehouses, factories, stores

Global Returnable Asset Identifier (GRAI)Returnable assets

Pallet cases, crates, totes

Global Individual Asset Identifier (GIAI)

AssetsMedical, manufacturing, transport and IT equipment
Global Service Relation Number (GSRN)Service provider
and recipient relationships		Loyalty scheme members, doctors at a hospital, library members
Component/Part Identifier (CPID)Components and parts

Automobile parts

Global Model Number (GMN)Product model

Medical devices

 

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.

 

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 is 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: 

Laser Marking Downloadable Form

"*" indicates required fields

Name*
This field is for validation purposes and should be left unchanged.
Datamatrix laser marking automotive part

Direct Part Marking Identification 101: 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

Dot Peen Marking Basics

What Is Dot Peen Marking?

, , , , , ,

Dot Peen Marking Basics

Ask anyone inside the industrial manufacturing industry – part-marking is crucial to component traceability when working with large quantities. And while several different types of part-marking exist, Dot Peen marking technology has been a preferred solution for many years. 

At a high level, Dot Peen marking machines use either electromagnetic or pneumatic force to rapidly oscillate a stylus, in turn indenting the marks onto the surface of the part. 

One of the advantages of Dot Peen is that it’s very flexible and can be used in either manual or fully automated production lines. A lot of the applications Dot Peen serves are manual applications, however, with modular Dot Peen systems, you can start with a portable system and later convert it to an in-line system for integration with fully automated production lines.

 

The Basics of Dot Peen Marking

If you took apart a Dot Peen machine, one of the most important components you would find is a carbide or diamond-tip stylus. 

The Dot peen process is considered a “low-stress” marking method because the mark is generated via material displacement rather than material removal.  The carbide stylus strikes the material surface to produce the mark via a series of cold-formed stamped dots. Compared to Laser Marking Systems, Dot Peen does not induce thermal shock to the part surface since the material is cold-stamped rather than super-heated to produce the mark.  

Dot Peen systems are commonly used by manufacturers in the aerospace and oil & gas industries where low-stress marking is required, such as tubular and flow control products that are exposed to extreme pressure differential in the oilfield. 

Dot Peen marking is viable for material hardness up to 63 HRC. Typically, when a part hardness is greater than 63 HRC, laser marking systems are recommended. 

All of Technomark’s Dot Peen machines rely on an electromagnetic solenoid to actuate the marking stylus. Dots are plotted in an X/Y plane via electronic control for precise placement of the Dot pattern. Using electromagnetic force versus pneumatic also provides a greater level of control of both the depth of the mark as well as the ability to mark contoured or complex surface.

Dot Peen Marking | Component Traceability In Action 

Dot Peen marking machines are utilized in almost every industrial-goods manufacturing operation, including: 

  • Automotive
  • Oil and Gas (pipes, fittings valves, other)
  • Aerospace
  • Defense
  • Metalworking (general purpose)

Dot Peen Marking 101

While these machines can run in-line and handle large quantities in an automated production environment, most are operated manually using a battery pack to go mobile. 

The best Dot Peen marking machines utilize a fully electric design and that doesn’t require compressed air to operate.  All Technomark Dot Peen marking machines feature an Intelligent Driving Impact (IDI) function that allows for marking on many different materials and finishes. The IDI function automatically adjusts and levels the stylus to the workpiece. Whether the part has a curved, wavy, or complex geometry, the stylus will follow the contour of the marking surface while maintaining a constant depth of high-quality marking throughout. 

When structural integrity is crucial, Dot Peen marking provides a low-stress marking solution that removes no material during the part marking process.

Why Choose Dot Peen Marking

One of the biggest benefits of a Dot Peen Marking Machine is its ability to efficiently produce marks compared to other marking systems. Other benefits of Dot Peen machines include: 

  1. Portability: battery-operated systems are ergonomic and perfect for smaller-scale operations or marking of large, heavy parts that cannot be transported to a fixed location for marking
  2. Versatility: state-of-the-art Dot Peen marking systems are modular and can start with a portable or manual marking system that can later be adapted to a fully automated production line
  3. Ease of use: Dot Peen machines are easy to program and do not require any advanced computing knowledge or technical training. 
  4. Permanency: Dot Peen marking process yields a permanent, indelible mark that can withstand harsh operating environments
  5. Economical: Compared to other marking systems, Dot Peen systems are typically less than $10,000.

Integrating a dot peen marking machine into your production line will improve the productivity and quality of the part-marking process.  

New and exciting dot peen innovations are coming this fall. Be on the lookout for machines that feature: 

  • Wireless connectivity between marking head and control (Network-able devices that are able to communicate to other devices through wireless communications)
  • On-board diagnostic tools to help the operator know when it’s time for scheduled maintenance — protecting your investment. 

If you have questions regarding Dot Peen machines or any part marking machines, contact us today. At Technomark North America, we have the experience to help you get the best solutions for your industrial marking needs.

(Editor’s Note: This blog was originally published in September 2021 and was updated in October 2022.)

Laser Marking for Manufacturing 101

Laser Marking Systems for Manufacturing: Abilities, Applications & More

, , , ,

Laser Marked Component

What do DVD players, checkout lines at the grocery store, and industrial marking machines all have in common? Lasers.

But not all lasers are the same. 

L.A.S.E.R. stands for Light Amplification by Stimulated Emission of Radiation. In simpler terms, it’s a highly concentrated beam of light. Lasers consist of a: 

  • Gain medium: a material that works in tandem with electrical currents to stimulate the photons of light as it passes through
  • Energy supply: Energy supply for lasers usually comes in the form of electrical currents. These currents are “pumped” through the grain medium to stimulate the atom as light passes through. The pumping of electrical currents causes the light to bounce faster through the grain medium. 
  • A material to provide optical feedback: The materials chosen for optical feedback have one primary job: steering. the way the beam of light is directed  

More

non organic part marking

Marking Machines: Are They The Best Method For Your Materials?

, , , , ,

Whereas a precision machinist might select a material specification based on the intended use of the end product, technology selection for part marking works the other way around: 

The material type determines the marking machine, if needed; the marking method doesn’t determine the material type. 

We’ll break down which part marking methods work best with various material types so you can decide which industrial traceability solution is best for you. 

More

part marking considerations

10 Industrial Part Marking Considerations

, , ,

Industrial part marking

Every manufacturing process has a unique set of challenges to face. Thanks to increased complexity and a lack of standardization, the part marking process is no exception.

Previously, we’ve discussed how material specification should be the first consideration when selecting the best permanent marking method for your parts. 

The next step is to understand how the marking system will fit into your production process. Let’s look at 10 process considerations that will help you narrow down options when selecting a direct part marking method for your project:

More