Why Laser Marking Add-On Services are a Smart Move
When you’re already investing in precision welding, machining, build-to-print manufacturing, or laser cladding services, there’s an opportunity to get even more value from your parts by adding laser marking as part of the same process. Laser marking is a simple, efficient way to enhance traceability, quality, and usability—without adding complexity to your supply chain.
For many projects, it’s an easy upgrade that pays dividends throughout the entire life of the part.
What Is Laser Marking?
Laser marking is a non-contact process that uses a focused laser beam to permanently mark information directly onto a component’s surface. Depending on the material and application, this can include serial numbers, part numbers, lot codes, barcodes, logos, or compliance markings.
Unlike labels, ink, or mechanical engraving, laser marks are permanent, precise, and resistant to wear, heat, and chemicals. The result is clear, consistent identification that lasts as long as the part itself.
Improved Traceability from Day One
Traceability is increasingly critical across industries, from aerospace and medical devices to energy and industrial manufacturing. Laser marking enables permanent, readable identification that supports quality control, regulatory compliance, and lifecycle tracking.
By incorporating laser marking during manufacturing, parts can be:
- Serialized for full traceability
- Linked to material certifications and inspection records
- Easily identified during assembly, installation, or service
Because the marking is done in-house as part of the production flow, it eliminates the need for secondary vendors or post-processing steps that can introduce delays or errors.
Protecting Quality Without Compromising Performance
One of the biggest advantages of laser marking is that it does not compromise part integrity. As a non-contact process, it introduces no mechanical stress, distortion, or tool wear. When properly applied, laser marking preserves tight tolerances and does not affect welds, coatings, or critical surfaces.
This makes it ideal for high-precision components, thin-walled parts, and assemblies where traditional marking methods may pose a risk.
Streamlining Your Supply Chain Through Laser Marking Add-On Services
Adding laser marking at the same facility where your parts are welded, machined, or clad simplifies logistics. Instead of coordinating multiple suppliers and shipments, everything is handled in a single, controlled environment.
That consolidation offers real benefits:
- Reduced lead times
- Lower handling and transportation risk
- Consistent quality standards across processes
- Fewer handoffs and less administrative overhead
For production programs or repeat orders, this streamlined approach can significantly improve efficiency and predictability.
Enhancing Usability and Long-Term Value
Clear, permanent markings make parts easier to identify long after they leave the factory floor. Maintenance teams, inspectors, and end users benefit from markings that remain legible through years of service, exposure, and handling.
Whether it’s a technician scanning a barcode, an inspector verifying a serial number, or an operator confirming part orientation, laser marking improves usability well beyond initial delivery.
A Small Add-On with a Big Return
When you’re already manufacturing a part, laser marking is often a minor addition in terms of cost and time—but one that delivers long-term value. From improved traceability and quality assurance to simpler logistics and better end-user experience, it’s a smart way to get more from every component you produce.
If you’re looking to maximize the return on your manufacturing investment, laser marking isn’t just an extra step, it’s a strategic one.
If you have questions about laser marking add-on services or would like to have this service added to your project, please contact us.
Types of Welding: Laser, GTAW, and EBW Compared
When it comes to joining metals, there are many types of welding available—each with unique benefits, limitations, and industry use cases. At Joining Technologies, we specialize in three of the most advanced welding methods: gas tungsten arc welding (GTAW), laser welding, and electron beam welding.
In this guide, we’ll explain the differences between these welding techniques, compare their strengths, and highlight which industries rely on each.
What Are the Main Types of Welding?
Welding is the process of fusing materials—usually metals—by applying heat, pressure, or both. While there are many types of welding methods, three of the most important in modern manufacturing are:
- Gas Tungsten Arc Welding (GTAW/TIG Welding) – A precise method using a non-consumable tungsten electrode.
- Laser Welding – A high-precision process using concentrated light energy.
- Electron Beam Welding (EBW) – A deep-penetration technique using a focused electron beam in a vacuum.
These methods differ in speed, precision, cost, and the industries they serve.
Gas Tungsten Arc Welding (GTAW/TIG): Precision and Versatility
Gas Tungsten Arc Welding, commonly known as TIG welding, uses a non-consumable tungsten electrode and an inert shielding gas (typically argon) to create strong, clean welds. This type of welding is known for producing exceptionally high-quality joints with excellent appearance.
Advantages of GTAW:
- Works with a wide range of metals, including aluminum, stainless steel, and exotic alloys
- Produces precise, high-strength welds with superior finish
- Excellent control over the welding process
- Minimal spatter and contamination
Limitations of GTAW:
- Slower than other welding methods
- Requires a high level of operator skill
- Equipment is more complex than basic arc welding
GTAW Applications:
GTAW is widely used in industries that require clean, strong, and visually appealing welds, such as aerospace, automotive, food processing equipment, piping systems, and medical device manufacturing.
Laser Welding: High Precision and Speed
Laser welding uses a focused beam of light to fuse materials. This type of welding is especially effective for fine, delicate work where precision matters.
Advantages of Laser Welding:
- Narrow, clean welds with minimal distortion
- Fast processing speeds
- Excellent for thin or delicate materials
- Highly repeatable for automation
Limitations of Laser Welding:
- Requires precise joint preparation
- Higher initial equipment cost
Laser Welding Applications:
Industries such as medical devices, electronics, automotive, and aerospace rely on laser welding for its accuracy, speed, and ability to handle complex geometries.
Electron Beam Welding: Deep Strength and Reliability
Advantages of Electron Beam Welding:
- Extremely deep weld penetration
- High-strength joints with low impurities
- Very low heat distortion
- Excellent for thick or dense materials
Limitations of Electron Beam Welding:
- Requires a vacuum chamber
- Best for specialized, high-performance applications
Electron Beam Welding Applications:
EBW is common in aerospace, defense, power generation, and advanced manufacturing, where structural integrity is critical.
Which Type of Welding Should You Choose?
Each welding method has unique strengths:
- Gas Tungsten Arc Welding (GTAW) – Best for high-quality, precision welds on a wide range of metals.
- Laser Welding – Ideal for fast, accurate work in high-tech industries.
- Electron Beam Welding – Unmatched for deep, ultra-strong welds in critical applications.
At Joining Technologies, we offer all three types of welding services—giving us the flexibility to recommend the right process for your project. Whether you’re in aerospace, medical devices, automotive, or defense, our expert team can deliver tailored welding solutions that balance performance, precision, and cost.
Work With a Leader in Advanced Welding
Choosing the right welding method can make or break your project’s success. By partnering with Joining Technologies, you gain access to cutting-edge welding technology, unmatched expertise, and solutions trusted by leading manufacturers worldwide.
Contact us today to discuss your project and find out which welding method is the best fit for your needs.
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Joining Technologies Welcomes American Cladding Technologies as New Division
EAST GRANBY, Conn., February 6, 2023 – American Cladding Technologies, a leading provider of laser metal deposition services for the past decade, has announced it will begin operating as a division of Joining Technologies. Both companies are owned by Joining Industries, Inc.
Greg Miller, President of Joining Technologies, says the decision was made in order to “streamline our operations and deliver better overall service as one company operating under a single management structure.”
This shift in operations is expected to be nearly seamless, as both companies were already sharing certain resources, including sales, marketing and quality engineering.
American Cladding Technologies (ACT) will move its equipment and staff to the Joining Industries Headquarters building at 17 Connecticut South Drive, just a quarter of a mile away from its current location at 15a International Drive. ACT will take over the space currently occupied by JT Automation, another Joining Industries company, which will move to a newly acquired property in Windsor in April 2023.
Although ACT will go forward as a division of Joining Technologies rather than a separate company, they will continue use of the American Cladding Technologies brand and website www.americancladding.com. Forthcoming web updates will establish a clearer connection to Joining Technologies.
Resistance Spot Welding Applications | It's not just for automobiles
Resistance spot welding applications go beyond the automotive industry. This article will briefly explore what resistance spot welding is, and what components can be made using this process.
What is Resistance Spot Welding?
Resistance spot welding joins pieces of sheet metal using pressure and an electric current. It’s a high-speed process that produces strong welds with no filler, making it unique among other welding processes.
What is Resistance Spot Welding Used For?
Automobile manufacturers use resistance spot welding very widely, but they aren’t the only ones who can benefit from using “current” technology. This process is efficient on time and cost, and it’s environmentally sustainable. A few notable resistance spot welding applications include:
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Metal frame assemblies
Steel and aluminum frames that use thin sheets of material are ideal for resistance welding. From furniture to firearms, resistance welding can achieve structural support using spot welds.
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Battery manufacturing and electronics
In lieu of soldering, spot welding can attach nickel strips to battery terminals. Because less heat is used using this method, the integrity of the battery is preserved.
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Gas control components
Found in semi-automatic firearms, gas systems enable automatic reloading. Some of the components that make up these systems can be resistance spot welded.
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Kitchen tools
Thin metals are used in all kinds of tools and appliances for the kitchen. Cookie cutters are a great example. Others include range hoods, pot handles, and chimneys.
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Wire mesh
You’ll find welded wire mesh in outdoor fences, but it’s also used in construction to reinforce concrete.
What materials can spot welded?
Thin sheets of low-carbon steel, titanium, stainless steel and aluminum are popular choices. At Joining Technologies, we’re able to weld 1.58mm aluminum, and 3mm steel.
Want to learn more about resistance spot welding applications?
Here’s another blog you might be interested in.
10 Reasons to use Laser Welding
With so many ways to join materials, here are our top 10 reasons to use laser welding.
1. Laser welding works with a variety of materials
Laser welding can be used to join a variety of metals, including stainless steel, nickel, titanium, Inconel, and molybdenum.
Notably, laser welding can also be performed with reflective materials, such as copper and aluminum. Joining reflective and dissimilar metals can be difficult or impossible to perform with other welding methods, but laser welding makes it significantly easier.
You can learn more about this in our Material Selection for Welding blog.
2. It can make microscopic welds
We use lasers to weld medical device components, including microfluidics chips and surgical equipment. If it’s small or needs to be welded in a hard-to-reach place, laser welding is the go-forward method.
3. It can also make big (deep) welds
In addition to creating microscopic welds, lasers are capable of welding thicker materials and creating structural welds that are 1/2″ deep.
4. The process and results are highly repeatable
If you totally love how your laser welded components turned out, we have good news for you: those results are repeatable. We can do it again, and again, the exact same way. This is because laser welding is…*drumroll…*
5. Laser welding is precisely controllable
For each job, our laser welding systems’ parameters are customized. With this noncontact process, we can easily control the size of the laser beam and, therefore, the size of the heat affected zone (more on that later!).
6. Unmatched speed
Laser welding can perform in minutes what TIG welding could perform in hours. The travel rate of the laser can be between hundreds and thousands of inches per minute.
7. Need low heat input? Choose laser welding.
Laser welding transmits heat in small, controlled areas. Other processes, like MIG welding, have greater heat inputs, which causes more residual stress on the component. Controlling the heat affected zone with laser welding keeps more of the metallurgical structure intact. The result is a higher quality weld that require less finishing and heat treating.
Laser welding’s-controlled heat affected zone also makes it possible for us to weld the exterior of a device without harming thermal-sensitive internal components.
8. Few size constraints on components
Laser welding can be performed in an open-air environment or in a glovebox. This opens up the possibility for working on larger components if you have a capable laser for the job.
9. Easily integrated with off-the-shelf motion products: CNC platforms, robots
Robots have been welding since 1962, and have been used more and more ever since. The road to innovating with this technology is paved and getting smarter all the time.
10. Laser welding is cost effective
Out of all 10 reasons to use laser welding, this is one of the best! You can achieve high quality results without compromising your budget. Laser welding is fast, controllable, and repeatable, making this method highly productive and efficient.
Although laser welding equipment is expensive, working with a contract manufacturer like Joining Technologies can allow you to enjoy the benefits of laser welding for a lower cost. It eliminates the need to secure the floor space, talent, and equipment required for an in-house operation.
Wondering how laser welding can benefit your project? Contact us at 860-653-0111 or click here connect with an expert.
Laser Welding Firearms
Laser welding firearms might be new, but firearms manufacturing in New England is something of a tradition.
In 1777, George Washington chose Springfield, MA to be our budding nation’s first arsenal. Headquartered in this region are companies steeped in the history of firearms; Smith & Wesson, Savage Arms, Sturm & Ruger, O.F. Mossberg & Sons, Colt, and countless others. Many of the United States’ first firearms manufacturers are still in operation today and continue call New England their home.
A complete supply chain has grown around these manufacturing leaders. As of May 2022, a total of 550 firearms manufacturers (FFL classes 6 – 11) exist across MA and CT. 206 of them are SOTs. You’ll find no shortage of companies, like Joining Technologies, that help produce firearms, whether it’s by forging, machining, stamping, or laser welding firearms components that become part of the final assembly.
What does it mean to be a firearms manufacturer?
Joining Technologies maintains a Code 07 Federal Firearms License. This is designated for a “manufacturer of firearms other than destructive devices.” The Code 07 FFL is separate from those possessed by dealers, importers, and antique collectors. However, anyone who is “engaging in the business of” firearms needs to acquire and maintain a license.
Joining Technologies is also a Special Occupational Taxpayer (SOT). Having an SOT expands upon the Code 07 FFL, allowing manufacturers to commercially manufacture and handle NFA items, such as suppressors. Manufacturers must also observe state laws surrounding firearms, which may further regulate working with NFA items.
Quality standards for firearms manufacturers
In addition to obtaining the proper clearances and documentation, it’s also incredibly important to adhere to quality standards when laser welding firearms. Firearms can be dangerous even when they are functioning correctly. An unsafe firearm can lead to disastrous worst-case scenarios.
After laser welding firearms components, Joining Technologies performs the following quality inspections:
- Cross-section to observe the depth of penetration.
- Components must pass pull and torque tests for strength.
- FPI (Fluorescent Penetrant Inspection) to locate breaks in the material’s surface, if any.
Benefits of laser welding firearms
With more than one way to join materials, why choose laser welding?
- Small heat affected zone helps preserve metallurgical structures.
- Highly repeatable process guarantees quality and consistency.
- Laser welding is ready for automation.
- Great for high volumes.
- Parts of all sizes and shapes can be laser welded.
- Cosmetic appeal is superior to other welding methods.
While laser welding is our flagship service, resistance welding provides several of the same benefits.
For more information, check out our “Laser Welding Vs.” article, or Ask an Expert!
What is the Heat Affected Zone?
What is the heat affected zone (HAZ?)
The heat affected zone is an area of the base material that hasn’t melted during the welding process, but has undergone changes in material properties as a result of its exposure to high temperatures.
Where does the heat affected zone occur?
Heat affected zones form adjacent to the weld. The following factors influence the size of the HAZ:
- Heat input
- Duration of exposure to heat
- Thermal diffusivity of the base material
Long cool down times mean larger HAZs. Laser welding, for example, uses a very low heat input, which means the components being welded will cool faster, and the HAZ is smaller.
How can you evaluate a heat affected zone?
Often, heat tint is visible and can indicate the temperature the material reached. Light yellow is the coolest (550° F) and dark blue is the hottest (1,100° F).
However, these colors are visible because of oxidation. Factors like surface condition, contamination and oxygen availability can affect the appearance of a heat affected zone. Materials with a high amount of chromium won’t display intense heat tint, because they’re resistant to oxidation.
While the heat tint is the most visible indicator that a material has undergone change, other chemical and metallurgical changes can occur within the HAZ. They include:
- Surface Nitriding – increased hardness, and decreased weldability.
- Corrosion – caused by precipitation of chromium carbides near grain boundaries. Without chromium content of 10.5%, steel loses it’s “stainless” quality.
- Hydrogen embrittlement – hydrogen gas diffuses into the molecular structure of the material, producing cracks.
- Phase changes – Austenitic steel can become Martensitic after exposure to extreme heat, becoming harder and more brittle, or becoming generally weaker.
Are there ways to reverse the molecular changes?
While we can never eliminate the creation of a heat affected zone entirely, we can deploy a pre-weld or post-weld heat treatment. Using a heat treatment can help restore material properties lost while welding.
If you work with Joining Technologies, our engineers and technicians will develop the best strategy for your specific project to ensure the best result possible.
Looking for a partner in precision welding?
Let us guide you through the options.
Laser Welding Advantages Over Competing Methods
Laser welding is one of several methods available for joining metals. So, how exactly does it work? Simply put, it uses concentrated light-based energy to melt and fuse certain materials, typically metal to metal, both ferrous and non-ferrous. It was developed in the 1960’s and was initially regarded as a specialty process. Today it is commonly used in various industries for the many benefits it brings. Though traditional welding methods persist. So, how do you know if laser is the best approach for your needs? Today, we’ll look at the advantages of laser welding when compared to other welding methods.
Laser Welding vs. Popular Traditional Methods
- Lasers deliver a weld with extreme precision, meaning the heat-affected zone is smaller. Also, overall heat input to the workpiece is lower when compared to gas tungsten arc welding (GTAW), brazing or other conventional methods. With GTAW, for instance, heat input is significantly higher as well as heat affected. Less heat means less unwanted distortion, and fewer damaging effects overall. GTAW is also not capable of reaching the same fusion or penetration depths of a laser weld.
- When compared to resistance welding, a laser welded joint of a similar size using similar heat input is less likely to fail. A tensile test would show a higher level of strength from laser than resistance.
Laser Welding vs Electron Beam (EB) Welding
More demanding applications may be suited for either electron beam welding or laser. Though laser welding’s advantages tend to stand out here as well. When compared to EB, laser is typically 20-30% less expensive. Further, more complex solutions can be delivered since components can be welded in an open-air environment. Also, shielding of gas can be applied directly to the weld. For larger volume projects, particularly ones that grow over time, laser can be more easily brought in for vertical integration than more complex systems like those required for EB welding. For this reason and others, a typical laser installation costs less than EB overall.
It’s important to note that EB welding is performed in a vacuum chamber, which comes with certain restrictions and limitations. Conversely, laser welding is conducted in the open air. It is faster, more flexible with fixturing, and is not subject to other functional requirements associated with vacuum environments.
Small Parts Demand Precise Welds
When considering which approach is best, part size is definitely a major factor, especially when dealing with miniature and microminiature components or assemblies. The challenge with traditional approaches is that it’s harder to precisely apply gas to a smaller part. An advantage of using a laser welding system is that it can be scaled down to do micro-welding.
Also, laser welding is not an electrically conductive process; there is no interaction with the material itself. This is unlike gas tungsten arc or resistance welding, where the part might be contacted by the equipment. This could cause a multitude of a problem for batteries and other electronic equipment.
Materials
As we mentioned earlier, laser welding can be used for both ferrous and non-ferrous materials. The list of commonly joined materials includes stainless steel, titanium and other grades of steel as well as aluminum and copper.
It also excels when welding precious metals like platinum, rhenium and other refractory alloys. This is why laser welding is often employed for semiconductor and battery manufacturing, which previously relied heavily on EB welding.
Consider Laser Welding
As you can see, laser welding has several advantages over competing methods. Though it is important to make sure you understand your requirements, along with laser’s capabilities compared to others to see if it’s the right fit. Often, it is. As a result, manufacturers benefit from reduced processing time, increased weld strengths (product reliability), and the overall efficiency that laser welding delivers.
Joining Technologies offers all of the welding processes mentioned in this article! Go to our Services page to learn more, or Ask an Expert for more information!
Need laser welding for your EV battery assembly?
Our experts are ready to guide you through the options!
Laser Welding for EV Battery Assemblies
Automobile OEMs can benefit by using laser welding for EV battery assemblies. In this article, we’ll explore EV trends, and how laser welding supports the latest battery innovations.
Innovation and demand fueling production of electric vehicles
10 million electric vehicles (EVs) were on the road worldwide in 2021, and you’d be hard pressed to find an automobile manufacturer that hasn’t developed an electric model yet. In fact, 18 of the 20 largest automobile OEMs have committed to increase their EV offerings.¹
Part of those offerings include battery driven electric vehicles (BEVs). While plug-in electric vehicles have historically reigned supreme, designers have been building a better battery. These BEVs are now capable of much longer journeys than previous iterations.
One of these innovations is using a busbar to carry electrical currents from the battery cells. Busbars are lighter in weight, and less bulky than cable, saving on space and also efficiency.
Why use laser welding for battery assemblies?
Using laser welding for EV battery assemblies can contribute to a more reliable battery, and an assembly that allows for more power storage.
From a process standpoint, laser welding boasts speed, precision and consistency. Laser welding allows for a controlled heat affected zone (HAZ). This ensures that the power cell interiors are not disturbed. And, as a non-contact process, a laser can reach small spaces with ease, making it easier to plan around complex designs.
The largest benefit of using laser welding, however, is the ability to weld copper and aluminum.
Wait. Back up. You can weld aluminum and copper?
Yes! Copper and aluminum are notoriously difficult to weld. Both materials are reflective, and together, they have poor miscibility as they melt (think about how oil will float on top of water vs. mixing in completely).
However, the conductivity of aluminum and copper makes these metals ideal for use in a battery assembly. Most often, manufacturers will want to weld Al to Al or Cu to Cu. Laser welding systems are highly customizable, and so, keen engineers and operators have strategies for welding these assemblies successfully.
In fact, we have a new tool that makes welding aluminum and copper even easier: our green laser system.
Is laser welding expensive?
It isn’t always! The equipment itself can be expensive to procure, run, and maintain. However, considering a contract manufacturer to perform the laser welding of EV battery assemblies for you is a viable, cost-effective alternative to starting production in-house. Production runs can start quickly, and price is often determined on weld configuration and unit quantity.
Need laser welding for your EV battery assembly?
Our experts are ready to guide you through the options!
¹IEA (2021), Global EV Outlook 2021, IEA, Paris https://www.iea.org/reports/global-ev-outlook-2021
Laser Welding Services for Firearms Exhibited at SHOT Show 2022
Joining Technologies exhibited its laser welding services for firearms at the annual Shooting, Hunting and Outdoor Trade (SHOT) Show in Las Vegas, Nevada. The event hosts not only firearms manufacturers, suppliers, and retailers, but also law enforcement, media and non-profit organizations. The show runs for a full week, packed with product showcases, networking events, industry panels, and more.
Across America, the $7.1 billion firearms industry supports more than 342,000 jobs. Perhaps it’s no surprise that the SHOT Show is the 5th largest tradeshow in Las Vegas. The show brings around $88 million in non-gambling revenue to the city. This year’s event was the largest hosted by The Venetian Expo in the two years since the COVID-19 pandemic began. Coupled with the “All In” theme of this year’s show, the message was clear: business is back.
SHOT Show 2022 Supplier Showcase - January 17 and 18, Venetian Expo, Las Vegas
Behind the 2,400 firearms and defense exhibitors at the 2022 SHOT Show are suppliers that help produce and elevate product lines. The SHOT Show Supplier Showcase is where you’ll find partners in machining, textiles, optics, and of course, laser welding for firearms.
Among the 556 suppliers at this year’s showcase, Joining Technologies was the sole partner for contract laser welding. To many who visited our booth on the show floor, it was an intriguing option they’d never before considered. While welding itself obviously isn’t unheard of, introducing the idea of welding with laser technology definitely sparks a conversation. Attendees were eager to learn how we might fit into their supply chain, or bring their production to the next level.
Among our techniques for firearms welding, laser welding is an ideal choice for safety assemblies and delicate components. Laser welding can also be used to weld suppressors and magazines. We use resistance welding for stocks, gas tubes, and other structural parts of a firearm. Beyond delivering quality, precision welded components, our contract manufacturing program is ideal for manufacturers growing a new product line or looking to save money and time by partnering with an outside expert in firearms welding.
SHOT Show 2022 (Main) - January 18 - 21 Venetian Expo & Caesars Forum, Las Vegas
The SHOT Show extended far beyond the Supplier Showcase. With 13.9 miles of aisles across the Venetian Expo and Caesars Forum, the event drew 43,000 attendees. Being an exhibitor was a fantastic opportunity to connect directly with members of the firearms industry. We talked with owners of businesses big and small, old and new. We also met engineers, purchasers, gunsmiths, shooting coaches, law enforcement officers – all connected to the firearms industry in some way. It was truly amazing just how many purposes were represented in one place. We found it was especially rewarding to visit the exhibiting manufacturers and suppliers, some of whom currently use laser welding for firearms. Seeing the products we help develop on display at the show was especially a treat.
Beyond the SHOT Show
Although it was impossible to see absolutely everything, what we did see left us in awe. We gained new perspective of how large the firearms industry is and who operates within it. We also witnessed the results of industry growth. Between 2020 and 2021, 40 million background checks were conducted in relation to firearm sales, and more than 11 million Americans purchased a firearm for the first time either for sport, hunting or personal security. This trend bodes well for 2022 as interest grows in the culture of shooting sports, gun ownership and personal safety. As warehouse stocks replenish and Americans purchase their first firearms, Shooting Industry Magazine predicts that retailers will play a key role in maintaining growth.
“The savvy retailer will remain in contact with first-time owners, encouraging them to visit a range and helping them become competent, comfortable users. Otherwise, our growth in the past two years will be just a bump on our long-term trend charts. It’s up to all of us, as an industry, to help these new gun owners and ensure they become an active consumer/participant at the range and in the store.”
We have to admit, it’s exciting to bring laser welding to a growing industry! Want to learn more about the services we offer? Explore our Precision Welding Services page for information on laser welding, resistance welding, electron beam welding, and more.