If you’ve ever faced the challenge of cutting through massive steel sections, reinforced concrete, or removing a seized pin that simply won’t budge, you’ll know how quickly standard tools reach their limits. In the world of heavy industry, mining, demolition, and plant maintenance, thermic lances are the heavy hitters — delivering cutting temperatures up to 4,000°C and capable of slicing through almost any material.
What is a Thermic Lance?
A thermic lance, sometimes called a thermal lance, is a cutting tool that uses high-pressure oxygen to burn a steel tube packed with alloy steel rods. When ignited with an oxy-fuel torch, the steel combusts in the oxygen stream, creating an exothermic reaction that produces extreme heat. This molten jet blasts through metal, rock, or concrete, carrying away material as slag. The process is not limited by material thickness, making it ideal for oversized, reinforced, or difficult-to-access jobs.
When to Use a Thermic Lance
Thermic lances are used when traditional cutting or removal methods are too slow, too risky, or simply ineffective. They’re invaluable in high-stakes situations where downtime costs thousands of dollars per hour, or when you’re dealing with materials that resist conventional tools. Whether it’s precision pin removal, cutting steel beams, or dismantling reinforced structures, the thermic lance gives operators with a level of power and flexibility unmatched by most other cutting methods.
Real-World Applications
Removing Seized Pins in Heavy Machinery
In mining and construction equipment, pins in excavators, loaders, or dump trucks can seize solid after years of hard service. Corrosion, abrasive dust, and the immense pressures involved can make them immovable. Mechanical presses often can’t generate enough force, and oxy-cutting risks damaging the pin housing.
With the Cigweld Supre Lance Mini Kit, operators can insert a 6mm, 7mm or 10mm lance directly into the pin and burn through it with precision. Running at around 250 kPa oxygen pressure for the mini setup, the lance melts through steel rapidly while minimising heat transfer to surrounding components. The 7mm lance option is particularly effective here, allowing controlled removal without damaging bearings or bores — cutting the job from hours to minutes.
Demolition of Reinforced Concrete Structures
In industrial demolition, reinforced concrete can be a nightmare. The embedded rebar resists mechanical breakers, and cutting it with traditional torches is slow and awkward.
A thermic lance burns through both concrete and steel reinforcement in a single operation. By piercing at an angle, operators can quickly weaken structural sections for controlled demolition, reducing the time heavy machinery spends on site.
Cutting Oversized Steel Sections in Scrap and Salvage
Shipbreaking yards, rail maintenance depots, and steel recycling plants regularly deal with sections far too thick for standard oxy-fuel cutting.
The Supre Lance Mini Kit’s ability to handle up to 4,000°C cutting temperatures means even massive beams or castings can be sectioned quickly, without multiple pre-heating cycles.
Foundry and Steel Mill Maintenance
When molten metal solidifies inside furnace tap holes or runners, production stops until the blockage is cleared. Mechanical removal is slow and can damage the refractory lining.
Using a thermic lance, maintenance crews can burn through the solidified metal quickly, restoring flow and reducing downtime without dismantling large sections of the plant.
Emergency Rescue Operations
In disaster recovery or emergency access situations, heavy steel barriers, containers, or collapsed structures can block rescue teams.
A thermic lance can cut access points through thick steel in minutes, allowing emergency crews to reach trapped personnel or equipment far faster than with mechanical cutting tools.
Why Professionals Prefer the Cigweld Supre Lance Mini Kit
Supre Lance Mini Kit
Unique 7mm Lance Option
Most kits only provide 6mm and 10mm lances. CIGWELD’s 7mm option offers the perfect balance — enough speed for efficient cutting while maintaining precision for sensitive jobs like pin removal.
Portable, All-in-One Design
The rugged carry case holds the handle, lances, PPE, oxygen hose, and safety accessories, making it easy to transport directly to the job site — whether it’s a mine pit, ship deck, or demolition zone.
Built-In Safety Features
Supplied with gloves, mask, and spatter shield, along with rubber seals and leak-test capability, the kit ensures operators can meet PPE and safety compliance immediately.
Backed by a Trusted Brand
With CIGWELD/ESAB’s nationwide service and consumable network, replacement lances, parts, and technical support are always accessible. This reduces downtime and keeps crews operational.
Engineered for Reliability
Handles and nozzles are precision-made to withstand repeated high-temperature cycles without warping or losing performance, giving crews confidence in demanding conditions.
Final Word
The Cigweld Supre Lance Mini Kit is not just a tool — it’s a critical solution for industries where heavy-duty cutting and precision removal are essential. From freeing seized machinery parts to taking down reinforced structures, its combination of portability, safety, and raw cutting power makes it an indispensable asset for professional operators.
Transform Your Welding Shop with Cobot Welding: A Comprehensive Guide
Cobots are a subset of programmable machines designed to perform tasks safely and effectively in a human environment.
They offer improved productivity, quality, and safety while reducing operating cost and worker injuries.
Cobots are easier to program than traditional robots and integrate seamlessly into existing workspaces without a need to modify the space for a larger robot. The smaller size makes cobots ideal for light-duty applications.
Understanding Cobot Welding and its Benefits
The growth of automation in manufacturing has been widely publicised over the past few decades, however, advancements in one specific task have captured our attention: industrial welding.
Industrial welding robots have existed for decades, so what makes the technology stand out today?
Is now a good time to purchase a robot welder?
To help you explore this type of investment, we will answer some common questions, review previous challenges, outline system components, touch on safety considerations, and discuss costs associated with owning a robot welder.
First, let us define the word ‘Cobot’, which was first introduced in 1996.
What is a Cobot?
The term ‘cobot’ is short for “collaborative robot”. Cobots are a subset of programmable machines designed to perform tasks safely and effectively in a human environment. Cobots can work next to people without modifying the shop floor or requiring a fenced-off area. Remember: “All Cobots are Robots, but not all Robots are Cobots”.
Collaborative robot welding, or ‘cobot welding’, is gaining traction because it can solve today’s toughest challenges in the most demanding environments, including industries with a high mix of low-volume parts. This allows for increased output and productivity – without more manpower– all within a small footprint. This is especially impactful for companies that are feeling the pinch of the welder shortage (which is everyone).
Traditional, non-collaborative robots are often referred to as “industrial robots”. Industrial robots are the large systems that are often used in the automotive industry, working around a car chassis without a single person nearby. Industrial robots require highly trained programmers and extensive systems investments. In today’s tight labor market, this simply means you will substitute the challenge of hiring a skilled tradesperson with the obstacle of hiring multiple skilled robot programmers.
Benefits of Cobot Welding
Robots can make your life easier, as long as you’re matched to the right type of system. For businesses where large industrial robot installations are cost-prohibitive, cobots may be the ideal solution. These businesses find that cobot welding systems are both cost-effective and easy to install.
There are numerous benefits to integrating cobot welding into your production process, including but not limited to:
Increased productivity: Cobots can operate with a repeatable operation time, making it easier to schedule the upstream and downstream steps in the value stream.
Improved quality: Cobots produce repeatable high-quality welds.
Enhanced safety: The integrated safety features decrease the risk of workplace accidents.
Reduced cost: With the ability to perform tasks accurately, cobots can significantly decrease rework and repair costs.
Decreased injuries: With cobots shouldering repeatable tasks, the risk of repetitive strain injuries (RSI) or overuse fatigue decreases.
We receive many questions about the transition away from manual welding. Many of these questions revolve around initial investment costs, setup time, training, and the implications for their existing team members.
Frankly, all questions are the right questions to ask.
We will touch on a few of these questions in this article. If you have more questions or want to read more, our ESAB University has articles, videos, blog articles, and more that you can explore.
Cobot Welding Vs. Traditional Robotic Welding: What’s the Difference?
The traditional industrial welding robot operates inside of its own caged ‘box’ and does not interact with humans at any time. In lean manufacturing, these isolated areas are called “process monuments”.
Process monuments are difficult to move or integrate into one-piece flow value streams. The most cost-effective production is high-volume, low-mix (HMLV) manufacturing. On the other hand, cobot welders are easy to move and reprogram because they occupy a small footprint and can mount (or remount) almost anywhere. They are redeployed as the production backlog changes and different equipment needs to be utilized.
Figure 1: ESAB Cobot welder in operation
Cobot Welding
Traditional Robotic Welding
Ease of programming
Cobots are designed to be used by manufacturing, technical, or process experts, not someone with years of coding experience. They often support user-friendly and intuitive interfaces to assist with programming the robot. Cobots are a compact solution that can be moved to the next task.
Programming traditional robotic systems requires advanced coding skills to support the installation and upkeep of the robot. The code used depends on the robot manufacturer and requires weeks (if not months) to master.
Payload and Speed
Cobots operate at lower speeds and payloads for light-duty applications that encourage human collaboration.
Traditional industrial robotic systems operate at higher payloads and speeds, which is ideal for heavy-duty and fast-paced operation. These factors do not promote close human proximity.
Safety
Cobots are designed with the assumption that a person could come in contact with the robot at any time. Safety functions inherent to the cobot employ sensors to monitor the motion, speed, force, and power of the cobot relative to a person’s proximity. If risk assessments are done correctly, traditional guards or protective devices are not needed to maintain functional safety.
Traditional industrial welding robots are designed with the assumption that a person would never enter into the restricted zone at any time during operation. As a result, these robots operate at high speeds and force. Compliance with current safety standards must be maintained, including but not limited to physical barriers, safety scanners, and emergency stops.
Cost
The initial investment of the cobot may be higher. However, installation costs are consistently lower when accounting for the lack of specialized safety infrastructure. Operating costs are lower due to their ability to perform diverse tasks. Cobots also require less training and certification to program the robot.
The initial investment cost seems low when assessing the robot alone. However, additional safety infrastructure must be accounted for in the investment. Additionally, operations must determine the process to bring materials to and from the robot cell. Dedicated programming and maintenance resources are required to maintain the whole system.
Workspace
Cobots are designed to work in a human environment. This means the cobot is installed at the original workstation. Modifications to accommodate a large robot and its associated safety barriers are not required since the footprint of the cobot is significantly smaller.
Traditional robots are isolated with plenty of space and physical safety barriers. Depending on the size, the robot may have significant electrical and weight demands on the facility. As a result, the robot system requires significant floor space and pressure on the infrastructure. Inputs and outputs are moved in and out of the area in batches.
It is important to note that the choice between a cobot welder and a traditional robot welder is not a matter of which is ‘better’ overall, but rather which is better suited to your specific operational needs and constraints.
The Upside to Programming A Cobot
Figure 2: Welding cobot programming example
Traditional robot welding systems are often marked by complex and intricate coding requirements. They may use Python, C++, or their proprietary programming language developed from other languages. Training is focused on learning the code that is specific to the robot. These systems necessitate a high level of expertise and lengthy programming periods before they can fully function. Additionally, any changes in the process (i.e. welding on a new shape) require new code, meaning operational downtime.
The majority of robot programming is done through a hand-held “teach box” or “teach pendant”. This enables the user to communicate with the robot to program, test, and troubleshoot. Cobot welding stands out from other types of machines due to its programming simplicity. Unlike industrial robots, the programmer interacts with a visual representation of the code instead of the raw code. This means that a broader audience can program and reprogram the robot with a fraction of the downtime.
How to Program a Welding Cobot
There are many different welding cobots on the market, but in general, they follow the same workflow. Here is a simple step-by-step example of how to teach a welding cobot:
Create a New Program: Create a new program for a part or an assembly.
Set the welding parameters: Define the welder’s settings, such as amperage, arc length, wire speed, torch angle.
Position the Cobot: Manually position the cobot arm to the desired starting point of the weld.
Record Points: Use the teach pendant to record the start and end points of the weld. Record any intermediate points.
Playback: Watch as the cobot repeats the recorded points. Adjust the speed and fine-tune the positions as required.
Repeat: Repeat the process for each new weld path.
Note: While cobot welding systems are designed to be intuitive, training may be required to become proficient in their use. It is also important to adhere to safety protocols when working with any robots, including cobots.
Benefits of Easy Programming
Now that we have reduced (can we say eliminated?) the programming barrier, let us review a few of the measurable benefits of these cobot welders.
Reduced Downtime: Fast and simple programming means less time spent on setting up the robot, resulting in decreased downtime and increased production.
Improved Flexibility: The ease of programming allows for quick adjustments on the cobot, making it adaptable to changing and adding to its task list.
Lowered Barrier to Entry: With anyone able to learn cobot programming, the barrier to entry for small to medium-sized businesses has been eliminated.
To summarize, while traditional robot welding has its strengths, the ease of programming, flexibility, and safety of cobot welding make it a compelling option for fabricators of all sizes. It is important to note that successful implementation depends on a variety of factors, such as the nature of the welding tasks, the skill level of the workforce, and the specific production demands of the business. This is where the experts of ESAB can help. If you have a specific group of tasks in mind, contact us here.
Components of a Cobot Welding System
The cobot welding system combines a collaborative robotic arm and the welding equipment. The arm, often equipped with a welding torch, follows set paths to execute welding tasks. Its precision ensures accuracy and consistency in the process. The welding equipment supplies power and materials like welding wire or shielding gas. These components form an effective and safe collaborative welding system.
A cobot welding cell comprises several integral components. These include:
The cobot arm, its controller and its teach pendant.
A welding power source.
Welding equipment, including a welding torch, wire feeder, and shielding gas supply.
PPE to protect both the cobot and human operators (similar to manual welding).
Safety Considerations When Implementing Cobot Welding
Welding Safety
Cobot welders are fun to work with, but we must take the time to highlight a few safety considerations. Robotic welding, like manual welding, presents certain potential hazards that must be mitigated to ensure the well-being of the human workforce. Appropriate safety measures should be taken to eliminate or reduce the risk of injury or damage to equipment. Despite the inherent safety design of cobots, particular attention must be paid to creating a safe and efficient welding environment. This includes but is not limited to:
Physical Hazards: Eliminate all preventable collisions or unwanted contact with the welding equipment
Electrical Hazards: Maintain proper safety protocols to prevent electrical shock, fire, and explosion.
Chemical and Fume Hazards: While the cobot is unable to breathe in metallic oxides, silicates, and fluorides, it is important to ensure the humans in the area are wearing the appropriate PPE and maintain adequate ventilation in the workspace.
Risk Assessment
All robot installations must conduct a thorough risk assessment, which is a formal process to ensure the robot integration is safe to use. The risk assessments document and quantify the hazards and selected solutions. For cobots, collaborative robot safety standards ISO-10218 and TS-15066 apply. ISO-10218 describes safety requirements for industrial robots, while TS-15066 supplements this standard with guidance for industrial-only cobot systems and workplace safety.
OSHA outlines some examples and best practices for conducting an effective risk assessment (RA). For each action (task) there is an associated hazard, calculated risk level, documented safety solution, and new risk level. The output of the assessment is the required safety function and the functional risk reduction measures for each function. An excerpt from an example Risk Assessment is shown below.
Figure 4: Risk assessment example from OSHA
Risk assessments should be periodically reviewed and validated. A risk assessment will show the solution but will not capture the status of that action. This is why a task list (or action list) should be an output of the RA. The task list will assign a person and a due date to each task. The task list should be reviewed with scheduled frequency to ensure all actions are completed on time.
The Cost of Cobot Welding: A Breakdown
The cost of a cobot welding system can be divided into three main categories: acquisition, programming, and maintenance costs. Cobot training would be needed, but consumes only hours of a technician’s time (vs. weeks).
Cobot welders are known for their seamless programming process. This advantage removes the need for skilled programming or attending time-consuming training, significantly reducing cost.
Maintenance Costs
Cobot systems tend to have lower maintenance costs than traditional robotic systems due to their simpler design and construction. The robot maintenance includes costs related to the upkeep of safety measures, which are generally lower for cobot systems due to their inherent focus on operator safety.
Potential Returns on Investment
For shop owners, the decision to invest in a cobot welder should not solely be driven by the initial cost/benefit calculation, but rather by the ongoing return on investment. The labor crunch we are experiencing today is expected to get worse.
The American Welding Society estimates that by 2024 there will be a shortage of 400,000 welders here in the US. Canada expects openings and job seeker number to remain similar, projecting the current welder shortage to extend through the next five yearsat least. To make things worse, the average age of a welder in the US is 55. It is no surprise that small and medium enterprises (SMEs) are also looking to invest in cobot welding solutions.
Here are a few ROI’s that our customers have highlighted:
Increased Productivity: Cobot welding systems are well known for their efficiency. They can operate 24/7, effectively bypassing human limitations such as fatigue. This can significantly increase the fabricator’s output, leading to higher revenues and profitability.
Reduced Errors and Rework: Unlike humans, Cobots are not prone to making errors due to distraction, fatigue, or inexperience. This leads to a repeatable high-quality output and reduces the costs related to rework and waste.
Lower Labor Costs: Cobots do not eliminate people, they assist them. Cobots allow the operator to focus on more complex tasks, thereby increasing production. This means a higher hourly production rate with the same (or lower) labor cost.
Enhanced Safety: Cobot welding systems are designed with operator safety in mind, reducing the risk of workplace accidents. Worker fatigue increases the risk of accidents, but consistent cobot operation enables a consistent, safe environment. This can result in lower insurance premiums and compensation payouts.
While the initial investment of a cobot is like any other machine purchase, the long-term financial benefits of adopting cobot welding systems can be substantial. Investing in Cobot welding systems can be a strategic move for fabricators, facilitating enhanced productivity, higher quality output, cost savings, and improved safety. It is the long-term benefits that should be the focus when considering the return on investment.
Figure 5: ESAB Cobot at Skyvington Manufacturing Inc.
More small businesses, such as Skyvington Manufacturing Inc., are adopting cobot welders as their backlog grows. Skyvington Manufacturing Inc. is a 30-person shop in Mississauga, Ontario, Canada that turned to a cobot welding solution when its backlog kept getting longer. President Brett Skyvington explains their rationale:
“One of the reasons I looked for the cobot was that our welding department was booked out for five weeks solid, and customer lead times were getting pushed out.”
After a month of using a cobot welder, the cobot made over 25,000 welds and tackled a large order for the company.
“The cobot allows us to achieve our quality standards and produce in a timely fashion, at a cost-effective rate. That’s really what we strive for as a company,” says Skyvington.
Conclusion
There is a lot to consider as you investigate a cobot welder. All of your questions are the right questions. We recognize that you may be considering changes due to difficulty hiring experienced welders, the pressures of a growing backlog, or the desire to expand into additional industrial segments.
In this article, we answered some common questions, reviewed challenges, outlined system components, touched on safety considerations, and discussed costs associated with owning a robot welder.
The easiest way to know whether cobot welding could help is to reach out for a virtual demo. At ESAB, we have been in business for over 100 years and have solved many of these challenges for our client partners. We can support you in your next steps. When you are ready to discuss your project, contact us here.
Cobot Welding FAQ
How fast can a cobot welding system weld?
The complexity of the task can vary widely. On average, a cobot welder can weld at a speed of about 20 to 30 inches per minute. However, it’s not only about speed. Some of the benefits of a cobot welding system are the precision, consistency, and ability to operate around the clock.
Can I teach a welding cobot even though I do not have experience in programming or robotics?
Yes! Programming a welding cobot is different from coding a robot. You do not need to have any coding experience when teaching a cobot. Cobots have intuitive user interfaces (including phone apps) that simplify the programming process.
First, contact us or request a demo. We will collaborate with you to determine the right size system for you. We will also get you started by sharing installation, startup, and training procedures developed by our team.
I operate a small shop. Can I still use a cobot welder?
Yes! Cobot welders are ideal for small-scale welding operations. Their compact size and flexible programming capabilities make them perfect for welding tasks in smaller workspaces. You can easily integrate the cobot into existing welding setups, allowing small-scale fabricators like you to automate their welding processes without significant infrastructure changes.
Essential Welding Safety Guide: From Workshop to Home Projects
Whether you’re working in a professional setting or tackling DIY projects, understanding and implementing proper welding safety tips is crucial for protecting yourself and those around you. At Cigweld, your safety is our top priority. Let’s dive into essential safety practices that we think every welder should know.
The Foundation of Safe Welding Practices
Before striking an arc, it’s vital to understand that welding safety begins with proper preparation. Workshop safety tips start with creating a clean, organised workspace free from flammable materials. Whether you’re in an industrial facility or focusing on garage welding safety, these fundamental principles remain the same.
Essential Welding Safety Equipment
Eye & Face Protection
Your eyes and face need maximum protection from arc radiation and spatter. An arc is not just a very bright light; it’s actually electromagnetic energy that can cause photokeratitis — essentially sunburn of the eye. A quality welding helmet safety system is non-negotiable. Modern auto-darkening helmets with appropriate welding lenses provide superior protection while improving visibility and comfort. Always wear welding safety glasses under your helmet for additional protection when grinding or performing other related tasks.
Hand & Body Protection
Quality welding gloves provide protection from heat, sparks, and UV radiation. Our range of ESAB welding gloves features options with premium cow-grain leather and Kevlar stitching for superior protection and durability.
While your hands are a welder’s most important tool, you should also protect your whole body from UV and sparks. Proper welding protective clothing should include:
Fire-resistant long-sleeve jacket or coat
Heavy-duty, cuff-less trousers
Steel-toed boots
Flame-resistant gauntlet gloves
Hearing protection for high-noise environments
Failure to protect your hands and body from the welding arc can result in burns — ranging from light sunburn-like discomfort to 2nd and 3rd-degree burns from molten metal. Don’t forget, there’s also the possibility of injury from slicing, cutting and tearing, as with any mechanical process.
Essential Welding PPE Checklist
We’ve spent some time talking about safe welding practices, what kinds of welding protection you should be wearing, and why. To make things even simpler, we’ve collated these tips into one checklist. Before starting any welding project, ensure you have:
Auto-darkening welding helmet with appropriate shade settings
Safety glasses with side shields
Flame-resistant clothing covering all exposed skin
Heavy-duty welding gloves
Steel-toed safety boots
Respirator when working with galvanized materials or in confined spaces
Hearing protection when working in noisy environments
Creating a Safe Workspace
Welding workspace safety is crucial whether you’re in an industrial setting or working from home. For industrial welding safety, ensure:
Proper ventilation systems are in place
Fire extinguishers are readily accessible
First aid kits are fully stocked and easily reached
Emergency procedures are clearly posted
Work areas are clean and free from tripping hazards
Home Welding Safety Considerations
When setting up for home welding safety, implement these workshop safety tips:
Designate a specific area in your workshop for welding, away from flammable materials
Install proper ventilation
Keep a Class C fire extinguisher within reach (usually a dry chemical powder extinguisher)
Use welding curtains or screens to protect others
Store equipment and materials safely when not in use
Make sure family members know not to enter the workshop while you’re welding
Regular maintenance of your welding safety equipment is crucial:
Clean your helmet’s lens daily
Inspect gloves for holes or wear
Check all cables and connections before use
Replace damaged PPE immediately
Keep spare lenses and consumables on hand
The Know-How You Need
Remember, proper safety might start with high-quality PPE, but it isn’t just about having the right equipment — it’s about developing good habits and maintaining awareness. Whether you’re a professional welder or a DIY enthusiast, these welding safety tips will help protect you and those around you.
For more information about our range of safety equipment or specific guidance for your welding projects, contact our helpful team of experts at 1300 654 674, email us on enquiries@cigweld.com.au, or visit your local Cigweld distributor.
When you’re welding, eye & face protection is absolutely crucial. Welding means exposing yourself to intense heat, bright light, and harmful fumes, which can have very harmful effects on your face and body. Without safety gear, you put yourself at great risk, all while hindering your ability to work efficiently. If you’re about to embark on a welding project—whether professional or DIY—you must invest in a high-quality welding helmet. This protective helmet will be your first line of defence against the dangers of welding and will allow you to complete your projects stress-free. At Cigweld, we’ve done extensive research into the benefits of welding helmets.
The Role of a Welding Helmet
A welding helmet is a crucial piece of safety equipment that protects welders from the hazards associated with welding. It covers the entire face and neck, shielding against harmful ultraviolet (UV) and infrared (IR) rays, flying debris, and intense light produced during the welding process. The core component of a welding helmet is the welding lens, which filters out dangerous rays and allows the welder to see the workpiece clearly. Welding lenses come in various shades, with darker shades providing greater protection. The right lens shade depends on the type of welding and the amperage used.
How Does a Welding Helmet Protect You?
A welding helmet will protect you from the following:
UV and IR rays: Prevents eye injuries such as arc eye and potential vision loss.
Bright light: Protects the retina from intense light, reducing the risk of temporary or permanent blindness.
Heat and sparks: Guards the face and neck against burns and injuries from flying sparks.
Debris and fumes: Prevents harmful particles and fumes from reaching the eyes and skin.
What Is Auto-Darkening?
One of the most significant advancements in welding safety technology is the auto-darkening welding helmet. Unlike traditional helmets, which require welders to flip the helmet up and down between welds, auto-darkening helmets automatically adjust the lens shade in response to the welding arc’s brightness. Auto-darkening has several benefits:
Convenience: Welders can wear the helmet at all times, increasing productivity and reducing exposure to harmful rays.
Safety: The lens automatically darkens within milliseconds when the arc is struck, ensuring constant eye protection.
Comfort: Reduces neck strain from constantly flipping the helmet up and down, making it easier to maintain focus and precision during welding tasks.
Crucial Safety Gear
As effective as a welding helmet is for protection, it shouldn’t be the only thing you’re using to protect yourself. To ensure maximum safety, you need to equip yourself with everything from welding gloves to safety goggles. Welding gloves protect your hands from heat, sparks, and sharp objects, while safety goggles shield your eyes from flying debris and sparks. You should also invest in quality hearing protection. Welding can be noisy, and prolonged exposure to loud sounds can damage your hearing—which is why you need earplugs or earmuffs to protect your ears.
All Weld & Good
When it comes to purchasing welding helmets and safety gear, trust Cigweld to provide high-quality products that ensure your safety and comfort. Cigweld offers a wide range of welding helmets, including the latest auto-darkening models designed to provide superior eye and face protection. We also offer a wide selection of welding gloves, hearing protection, and safety goggles, making us your one-stop shop for all your welding safety needs.
Investing in a reliable welding helmet and complementary safety gear is a crucial step toward safeguarding your health and enhancing your welding performance. Choose Cigweld today for top-notch protection and peace of mind.
