Tag: welding

TYPES OF MACHINING EQUIPMENT — A QUICK TOUR

Post author By Glenn Metalcraft
Post date August 30, 2022
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Machining is the art of processing metal, wood, ceramic, or plastic into products of the desired shape, weight, density, and length. However, most industries limit the use of this term to mean producing metal products of different shapes and sizes to suit various industrial needs. In this blog, we’ll be introducing to you the types of machining equipment as well as their processes.

Numerous products can be produced through machining, including automotive parts, bolts, screws, nails, rails, metal rods, and frames. These products are essential in various industries, such as the automotive and construction industries.

Types of machining processes

There are many types of machined components produced from different machining processes. However, modern engineers have adopted five main types of machining to summarize the entire lot. These are:

Drilling

Drilling refers to making holes into metallic products. This is common on products such as rails that have to be fitted together using a screw. Drilling is also performed on bolts and nuts. Modern machining companies utilize automated systems to drill accurately and effectively according to the client’s demands.

The automotive industry requires a lot of drilling as the manufacturer must fit different car parts together. Heavy-duty construction companies also need a host of drilled materials for construction purposes. You can also think of railway construction companies relying on this technology to create screw gaps in the thick rail system.

Turning

Turning is a machining process that rubs and presses a raw material against a sharp surface, shaving it off. The raw material is spun by an automated tool against a harder material which shaves or cuts it off into the desired shape.

Milling

Milling tools work in almost a similar fashion to drilling tools, only that it works by rotating around the object and shaving it into the desired shape. The object is clamped into a fixed position, and a computer-controlled miller is rotated around it, cutting off the upper layer into the desired pattern.

Welding

In most cases, machining may involve joining two or more pieces of metal together through welding. Welding allows you to craft artifacts of different patterns and shapes and reinforce metal piece connections that bolts and screws cannot.

Cutting

Metals, being super hard, require professional metal cutting tools available at top machining operations centers. This process is essential in trimming down metal sizes into desired lengths and shapes that can fit into different spheres of construction.

Automated machining tools are often programmed with special parts that perform several machining processes simultaneously. This equipment is made up of different machining tools pooled together. Here are common machining tools;

Common machining equipment

Several machining tools are designed to perform various processes. They include:

Turning tools

These tools are designed to grasp the raw material and rotate it against a fixed milling or cutting blade.

Milling tools

Technicians use millers in ingraining patterns against metal surfaces. These are a connection of sharp and hard blades that scrape off the layers of the raw material to a desired shape or pattern. Milling tools are mostly fixed onto the machining robot, but you can get small portable ones for domestic use.

Drilling tools

Drilling tools are essential when making holes on metal surfaces for screws and fittings. A drill should be made up of hard material that can withstand the pressure against the raw material being processed. Drills come with chisels of various diameters allowing you to customize the holes to fit the size of screws at hand.

Cutting tools

Cutting tools are mainly used in construction to finely and accurately cut metals. Automated cutting machines use integrated lasers for precise accuracy in high-tech metal products.

Boring tools

Boring is the process of enlarging already drilled holes. This is often done whenever there is a need to use larger and more robust screws to secure the joints. Sometimes, drilled holes may be of small size and may require enlargement.

Computer numerical control (CNC) machining

Most machining processes are repeatable and can be cumbersome if done manually. Computer numerical control (CNC) incorporates computer hardware and programs that perform repeated commands several times. CNC also enhances the accuracy and efficiency of machining processes while reducing waste in raw materials and the workforce.

Hybrid CNC machines can be manually or automatically operated, ensuring continuous processing even if the system is down. Additionally, these machines are fitted with all machining tools and can perform multiple tasks simultaneously, significantly saving time and workforce.

Machining applications

Machining products form the core of industries such as engineering, manufacturing, automobile, and construction, among other sectors. For instance, the petroleum industry requires fine measurements of pipe sizes, hammerheads, drill bits, and structural elements such as beams and rebar. This is why machining has a versatile application accommodating needs from limitless fields.

Key Takeaway

Machining tools are essential in running the operation of businesses in various sectors. Your business can thrive better if you partner with a reliable machined products supplier in the US. One machined product dealer is Glenn Metalcraft, which supplies various machined components across the United States.

Glenn Metalcraft is part of the Elemet Group and offers various machining services, including drilling, spinning, cutting, and welding. We also offer fabrication and finishing services under our parent group, Elemet Group. Contact us through our website or visit our offices in Princeton, Minnesota, and Fort Worth, Texas.

Tags CNC machining, cutting, drilling, machining processes, milling, turning, welding

Welding

Complete Guide to Welding Types and What Each Means

Post author By Glenn Metalcraft
Post date November 30, 2021
No Comments on Complete Guide to Welding Types and What Each Means

What are the Different Types of Welding?

Since ancient Egypt, humans have welded base metal in one way, shape or form. Welding does not get the credit it deserves, but few skills human beings have created have had as much of an impact on the average person’s daily life.

Here are the major welding techniques, how they were or are used. Keep reading to learn how you can determine the types of welding processes you need for any projects you are working on.

And for a quote on welding services, contact Glenn Metalcraft today.

Welding’s Impact

Just about everywhere you look, various forms of welding affect our lives. Your vehicle, furniture, appliances, even some electronics have some form of welding (which is different from soldering.) From the early days of forge welding through today’s most computer-driven, semi-automatic, and sophisticated welding methods, welding has helped us bond metal to create things that truly enhance our lives.

Forge Welding

Forge welding was the earliest form of welding. It started with ancient Egypt and spawned blacksmithing. It involves heating two metals to the point of a molten status and then pounding them into a single metal object.

Braze Welding

This type of welding goes far back as well. Braze welding has been found in archeological sites worldwide. It was used for bonding bronze, silver, gold, and steel. This type of welding is still used today, primarily when working with softer metals that melt under lower temperatures.

Arc Welding

Arc welding is the most common form of welding and was developed in England and France in the early 1800s. It uses an electrical pulse to melt metal at extremely high temperatures and carry it across a joint via an arc to fill the arc with an incredibly strong bond.

Arc welding came into prominence during World War I and eventually became a primary bonding method in modern manufacturing. In the war (and subsequent wars,) it was a vital tool in repairing ships quickly so they could return to battle or be retrofitted with new equipment.

Arc welding has improved in equipment, safety, cost, and weld quality and is now used in several different forms for various purposes. A few of the more common methods of welding are outlined below.

Metal Inert Gas (MIG) Gas Metal Arc Welding (GMAW)

MIG welding is exceptionally simple but produces high-quality welds, and because of that, it is a favorite for many new welders. The welding process occurs by feeding wand-based filler metal into the portion of the weld that is arced, while gas expels to shield it from external elements.

It is not generally used to weld metals outside because of the need for a gas shield. It can be used, though, for many different types of thickness, making it a “go-to” for simple type welds. The wire serves as the electrode and melts when the arc travels from the tip of the wire to the base metal. This action creates a pool that hardens into a weld.

The arc process is controlled by the welder, which allows them to proceed at their own pace. When completed, a MIG weld is smooth, tight, and very linear.

Stick Welding Shielded Metal Arc Welding (SMAW)

Stick welding is the most used type of welding for non-complex projects because it is easy to learn, inexpensive, and easy to perfect. The downside to stick welding is that it splatters a lot, depending on the welder’s skill. The splatter makes cleanup afterwards nearly inevitable.

An arc from the stick to the base metal is created, and the stick serves as the filler metal. The arc will generate heat and flux, coat the stick, vaporize, and protect the metal from oxidation. It can be used outdoors and in adverse weather, including rain, ice, snow, and wind. Additionally, stick welding works on rusted, dirty, and painted surfaces.

Another upside to this welding method is that there are many electrode types, and they are easy to swap. This flexibility makes stick welding very versatile and able to work with most metals, including stainless steel. Because the process will create heat, it is not the ideal welding method for thin metals.

TIG – Gas Tungsten Arc Welding (GTAW)

This type of welding uses a tungsten electrode and requires no filler metal, meaning that you can join the two metals directly. Shielding gas is needed for this type of welding, and it protects the weld from external elements. There is no splatter, and the bond is incredibly precise.

Flux Cored Arc Welding (FCAW)

FCAW uses a wire as the electrode, which has a core of flux that creates a gas shield around the weld. FCAW is best with thicker, heavier metals, making it a favorite for repairing heavy equipment and components with large metal seams, like barges. The FCAW process is clean, does not need external gas, and is affordable.

Plasma Arc Welding

A smaller arc helps create a very precision-oriented weld with Plasma Arc Welding. This method also uses a different type of torch, which runs much hotter than a traditional torch. The torch is so hot that even base metals can melt, allowing plasma welding with no filler metal.

Plasma Arc welding creates deep weld penetration on relatively narrow weld channels. Plasma Arc Welding produces attractive welds that are exceptionally strong. It can also be accomplished at very high speeds, making it ideal for some forms of manufacturing.

Other Types of Welding

While the welding methods outlined above are the most popular, several other types of welding are also frequently used. Each of these methods are used in hybrid situations, usually in some form of manufacturing. A few include:

Laser Beam Welding
Electron Beam Welding
Electroslag
Atomic Hydrogen Welding

What are the Different Types of Welding: Final Thoughts

Generally, the two most popular types of welding, stick, and MIG (GMAW), are used because they are easy, require little specialized equipment, are inexpensive, and the weld produced is superior and great looking. They are the most popular because anyone from beginner to expert can do them with little training time.

For more information on welding, contact Glenn Metalcraft.

Tags TIG welding, types of welding, welding

Welding

6 Benefits of Robotic Welding

Post author By Glenn Metalcraft
Post date August 17, 2021
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Automated welding offers several advantages to businesses, including reduced costs and higher return on investment. This article discusses the many benefits of robotic welding and how it can help your business.

What are the Benefits of Robotic Welding?

1. Increased Productivity

Compared to manual welding, robotic welding systems can achieve faster results.

It can improve productivity as the robotic systems get the job done quickly. You don’t have to wait hours when you have robots working—the cycle time is lesser, which means you can get more things done.

Whether you have acquired new or used robots, the output is still the same as long as the purchased robotic welding systems are functional and in good working order or when you hire the right company to help you with fulfillment. Most importantly, robot arms don’t get tired. There’s no need for breaks.

You can have welding robots work as many hours as possible if you have several projects that need to get done. No one has to take vacations or sick leaves. If you’re flexible or have some people who can supervise, your robotic welding systems can work 24/7.

2. Reduced Mistakes

With manual welding, it’s possible to make mistakes.

Robotic systems, on the other hand, are designed to work effectively and efficiently. So long as the machines are well maintained and in good working condition, they make fewer to no mistakes.

The weld quality will be exceptional with industrial robots. You don’t have to worry about manual welders’ common mistakes, such as choosing the wrong wires or the size gun or using the incorrect voltage. These mistakes are reduced significantly, which in return benefits your company.

3. Consistency

Welding processes are used in several industries such as construction and automotive.

Before the process can begin, a welding method is chosen. The base metals and equipment are prepped, measured, and positioned. Also, the welder has to be certified, prepared, and trained. They need to adhere to the standard procedures to ensure consistency and also avoid contamination.

When the worker fails to do proper shielding, the result could be weak or porous. You can significantly reduce or completely avoid the problems associated with manual welding when you automate the process.

With robotic arms helping, you know that the output is always consistent. You won’t have to worry about other issues or contamination. Robotic automation ensures high-quality output and consistency all of the time.

4. Safety and Cost Savings

When it comes to welding, safety is the topmost priority.

Welding injuries can occur when the workers don’t take the proper precautions, such as wearing safety glasses, safety boots, welding helmets, and hearing protection. When the welder isn’t careful, they could lose their hearing or eyesight and suffer general burns.

It’s essential to keep all the laborers safe, or the company may pay for the medical bills or other damages if the laborer isn’t insured. You can avoid all these when with the robotic welding process. Robot arms don’t get hurt, and you won’t have to pay for insurance when you have people working for you. Over time, it can add to massive savings on your part.

Keep in mind that running a business means reducing all the expenses wherever possible to maximize your profit. A higher return of investment is entirely possible with automated welding.

The cost to acquire robots may be higher, but it’s cost-effective in the long run. So long as you know how to maintain your robots properly, they should work efficiently for many years, helping you generate more revenue for your business.

5. Robots Can Start Immediately

Whether you’re a startup or an established business, it’s essential to have a good hiring process in place to ensure that you have the right people in your team.

Welding requires the right skill and concentration — you can’t hire anyone for this. They need to have the training and experience for them to work efficiently and effectively. Also, you will, of course, need to pay for labor.

You can save time when you have robots working for you. There’s no need to spend weeks or months looking for more people to help you finish projects if you’re an established company.

No more labor costs too, which is one of the benefits of robotic welding. Most importantly, you don’t have to wait for them to get started. Robots can begin working on your project at any time—no need for training or hiring process. Robots are already designed to do their job the best way possible.

6. High-Quality Output

When the workers are not highly trained or experienced, they may make mistakes or even injure themselves. Major defects can include hot and cold cracking, blowholes, penetration defects, or iron contamination.

Before starting the process, welders need to do some preparation, take extra precautions, store and handle metal the right way, choose the right gun and electrodes, etc. If they fail, the output may not be that exceptional.

With automated welding, the output will be of top-notch quality if you have the best robots in the market. In return, you get repeat clients.

Invest in Robotic Welding

Because of increased productivity and improved quality, you can complete more projects in less time. In return, your business can generate more revenue.

If you want to drive more revenue, we suggest investing in robotic welding. And that’s where Glenn Metalcraft comes in.

We can provide both manual and robotic welding services to our clients. Our team can handle small to large volumes of projects. We have been helping businesses for several years and still counting.

One of our top priorities is to provide the best welding solutions to businesses. Get in touch with us today to request an estimate for your next robotic welding project.

Tags robotic welding, types of welding, welding

Welding

The Differences Between Welding And Metal Fabrication

Post author By Glenn Metalcraft
Post date February 15, 2021
No Comments on The Differences Between Welding And Metal Fabrication

From the cars we drive to the tall buildings we work at all day to the industrial plants that produce everything we use, today’s society owes its infrastructure to metal’s strength and durability. Extreme amounts of heat and pressure and skilled labor give the metal its final form. Two of the most crucial metalworking processes are welding and metal fabrication. Many people don’t understand the distinctions between these two processes. Let’s delve into some of the differences between welding and metal fabrication in today’s blog.

In the meantime, if you have a metalworking project that you need help with, contact us. Glenn Metalcraft’s customer relationships are as solid as the metals we work with, forged on quality service for the highest quality parts.

GMI is an extension of each of our customers. We strive to grow in the right direction, so we are prudent about the work we accept and aim to achieve a good fit above everything.

Welding, Defined

Welding is the process of joining pieces of metal together using fusion. These material pieces must have similar melting points for the welding to be successful at holding them together.

Welders often work with hot metal, specialty tools, and heavy machinery. Therefore, it’s imperative to be trained in proper safety guidelines and use the correct safety equipment to prevent injuring themselves or others.

Welders should always have access to:

an auto-darkening welding helmet
coveralls or a leather apron
flame-resistant clothing
hearing protection
heavy work boots
safety goggles
welding gloves
and often a method for fume extraction equipment.

Workers must understand the importance of safety equipment, meaning the shop should have safety policies defined and communicated to their welders. Both the provision of equipment and the proper training in safety expectations are necessary for a metal fabrication shop to have a thriving safety culture and environment. This safety culture is part of the shop’s overall program of quality control.

Welding involves the fusing of two (or more) pieces of metal. Numerous welding techniques exist, and each has its particular strengths and weaknesses.

Standard welding techniques include:

Shielded metal arc welding.
Gas metal arc welding.
Gas tungsten arc welding.
Flux core arc welding.

All welding techniques have the same goal: to permanently bond metal pieces together.

Metal Fabrication, Explained

Metal fabrication is the process of bringing together metal parts and assembling, or fabricating, something out of the elements. Usually, the process creates metal structures, machines, buildings, or other components.

Metal fabrication is the entire process of creating metal parts, from beginning to end. In comparison, welding is only one part of the fabrication process, which involves using heat to join two metal pieces.

Metal gives structural strength and efficiency. For instance, metal is strong and extends the life of structures. However, despite its strength, it can be manipulated to take on a new shape. Besides, due to its strength, it is incredibly cost-efficient. Metal fabricators can replicate the procedure to create a product, which brings down the cost per unit.

Also, metal is cost-efficient for the owners. Buildings or structures that utilize the fabrication process have a lower risk of fire damage, peeling paint, and even attract fewer pests. Best of all, its resistance to damage means there are lower insurance rates.

Processes Used In Metal Fabrication

Casting. The casting process occurs when molten metal is poured into a mold and is left to solidify into a specific form. Casting is one of the most flexible metal fabrication methods. It’s ideal for a wide range of complex shape-making. The most common materials used in casting include copper, gold, iron, magnesium, silver, and steel.
Cutting. Perhaps the most common metal fabrication processes involve cutting, where sheets split into halves, thirds, or smaller. Welders perform cutting on a range of machines, from lasers and plasma torches to elaborate high-tech machinery pieces.
Folding. One of the more complicated metal fabrication processes involves folding, where a metal surface is manipulated to shape at a certain angle.
Machining. When a machine removes portions from a metal piece, the process is known as machining. The method uses a lathe, which will rotate the metal piece against tools that trim corners and edges, cutting the section down to a desired shape or measurement.
Punching. When holes are formed in metal, the process involved consists of punching. Punching is when a metal piece is placed under a die and submitted to a drill “punch-through.” For the punched hole to be the correct size, the drill’s circumference must be accurate.
Shearing. For long cuts, the process is known as shearing. Shearing can be done horizontally, vertically, or by lowering the blade like a paper cutter. Shearing is used to trim down the edge of sheet metal, but the shearing process may be done anywhere on the metal piece.
Stamping. The metal fabrication process of stamping creates specific shapes, letters, or images within a metal piece. In effect, metal stamping is similar to a relief carving in wood or marble. Coins are a primary example of metal stamping: with words, currency amounts, and presidents’ faces stamped on each side on pennies, nickels, dimes, and quarters.
Welding. Welding is easily one of the most popular metal fabrication processes among enthusiasts, along with cutting.

Additional metal fabrication processes include broaching, grinding, honing, and milling. Depending on the needs of a particular metal fabrication application, some metal facilities even perform specially customized fabrication types.

Differences Between Welding And Metal Fabrication

Welding is a metal forming technique necessary in many metal fabrication applications to complete work on a specific part or project.

Not all metal fabrication involves welding, but good welders are essential for a successful metal fabrication business to operate to its greatest potential.

Both welding and metal fabrication uses similar processes like assembling and bending. Many welders can fabricate, and many fabricators can also weld.

Metal Fabrication Encompasses Many Different Techniques

Metal fabrication encompasses the creation of a metal product from beginning to end. It involves everything from layout and design to shaping and finishing. In contrast, welding is simply one activity during metal fabrication.

As we stated above, all welding techniques have the same goal: to permanently bond metal pieces together. Metal fabrication, by comparison, encompasses many different metalworking strategies — welding included.

Welding and Metal Fabrication Use Different Tools

There are various tools used during welding and metal fabrication. Typically, professional welders need equipment such as abrasives, chipping hammers, electrode holders, soapstone, vice grips, vices, and welding clamps.

Metal fabricators, by trade, concern themselves with metal cutting, machining, or bending.

Fabricators accomplish this task using various cutting machines. A fabricator uses a lathe to remove portions of the metal. They can also create holes through which bolts will be able to pass. Bending machines then add necessary angles to the metal piece.

Welding utilizes a diverse toolset, including welding clamps, torches, power sources, and consumable electrodes.

Welding and Metal Fabrication Require Different Skills

Metal fabrication uses various metalworking processes — welding included — to create the structures and components necessary for the modern world to exist.

Most fabrication tools have a tabletop nature. Fabricators place the metal on the relevant device and then carefully manipulate the tool to accomplish the desired task.

On the other hand, welding has a vastly different strategy. While some welders do require stationary tools, welders mainly perform the welding process itself by hand.

While some metal fabricators also possess welding ability, the welding process’s complexity often requires more specialized practitioners. Without intense practice, a welder wouldn’t be able to create strong, neat welds. When creating high-performance metal products, only a welder with experience can operate with the necessary degree of skill and precision.

Why Trust Your Metal Manufacturing To Glenn Metalcraft?

Glenn Metalcraft’s customer relationships are as solid as the metals we work with, forged on quality service for the highest quality parts.

GMI is an extension of each of our customers. We strive to grow in the right direction, so we are prudent about the work we accept and aim to achieve a good fit above everything. Contact us about your project today.

Tags metal fabrication, welding

Welding

Introduction to Robotic Welding

Post author By Glenn Metalcraft
Post date December 1, 2020
No Comments on Introduction to Robotic Welding

From the first time a caveman made a tool, humans’ daily lives changed from manufacturing. Take a look at everything around you right now.

Production and manufacturing are responsible for all you see that does not exist in nature. From the chairs we sit in at our desks to the cars we drive, robotic welding has touched many of these items.

At GMI, we’ve invested heavily in our robotic welding automation equipment and our personnel for several years. From handling heavy parts to improving our speed and safety rates to welding as consistently and efficiently as possible, our automation team has continued to impact our customer base. Contact us for information about our robotic welding services.

Manufacturing Through The Ages

Originally, items were made by hand by individuals. Then in later centuries, by craftsmen in their small shops. Once the Industrial Revolution began in the 18th century, production moved out of those small shops and began in large factories.

When Eli Whitney invented the mechanized assembly line in 1797, manufacturing took off! Eli Whitney is the founder of the concept of interchangeable parts, which significantly increased the manufacturing process. Now, products could be manufactured in a continuous fashion versus assembled one-by-one.

One of the key processes in manufacturing metal items is welding. Welding is the process of joining two pieces of metal using heat and pressure. Welding has been around since the man’s early days. Egyptians developed pressure welding techniques as far back as 3000 B.C.

It wasn’t until the 1860s that Henry Wilde, using the electric sources available, patented the first form of electric welding.

The early- to mid-twentieth century was concerned with developing new, different, more advanced welding processes such as metal spinning. This time gave birth to arc welding, flux-cored welding, electron beam welding, and others.

While the process of welding puts humans in hazardous environments with extreme heat and toxic fumes, this application is necessary for manufacturing. For decades humans were put in danger at factories to meet manufacturing demands.

Then, in 1962, everything changed again. Enter robotics.

That year, General Motors started using the first industrial robot in their automobile factory – the ANIMATE, developed by George Devol and Joseph Engelberger. The ANIMATE performed spot welding on automobiles on the assembly line.

During the 1960s and 1970s, other robot manufacturers like FANUC, KUKA, and Motoman came on the scene. It did take some time before robotics became mainstream in the manufacturing industry.

Not until the 1980s did Robotic welding accelerate. It was then other automotive companies followed G.M.’s lead and started using robots for welding. Finally, industries began to understand the advantages of robotic welding, and the industry only grew from there.

By 2005, over 60,000 robotic welding machines were working throughout North America, mainly in the U.S. While some companies may have scoffed at the high price tag on automation, costs are decreasing as more and more companies switch to robotic welding automation.

With man’s fascination with metals and manufacturing, it is easy to see why robotic welding is the way of the future. It has offered significant advantages in the manufacturing industry for several reasons.

Advantages Of Robotic Welding

You can segment the automated welding and cutting market into very specific categories. With this, our robots have gotten faster, stronger, reliable, easier to program, and cost-effective.

Robot welders create high-quality, precise welds. They also boost productivity on an assembly line. These robots save manufacturers money through:

labor costs because of their speed,
their ability to work without breaks,
and their reduction in errors.

Also, they raise any shop’s safety level by getting human workers out of hazardous welding environments, away from the extreme heat and the toxic fumes.

Robotic Welding Jobs

While welders are no longer in danger, robots still need humans to program and function. And while manual welding may become less popular, humans will always be an important part of the welding and manufacturing process.

The titles may have changed slightly, but the humans who work with welding robots have many positions to fill:

Assembly Robotics Engineer
Robotic Weld Team Member
Robotic Technician
Robotics Engineer
Applications Engineer
Applications Technician
…and more!

Robots Answering The Need

Manufacturing production is experiencing its sharpest increase since June 2012. As such, the awareness and usage of robotic automation have reached new heights. Manufacturers are taking advantage of the economic climate by investing in capital equipment to increase quality and productivity.

Driven by the increase in demand and labor shortages, manufacturers are looking to reduce time to market and the costs associated with production. This void, along with more affordable and capable robots, has fueled a greater level of intensity within the manufacturing sector for buying robots.

As a result, robotic automation has soared in recent years.

One of the main uses of robots in robotic welding is to increase efficiency, productivity, and, most importantly, safety in manufacturing. Welding is a tricky business because it is always associated with heat, flames, smoke, and radiation. It is a good idea to use robots for these dangerous tasks.

Robotic welding came into existence nearly a quarter of a century ago. Robotic automation is useful in various manufacturing industries. To take an example from everyday life, check with your car manufacturer to see how it was produced—likely using an assembly line technique using robots with long spider-like arms quickly moving and joining parts together to create your vehicle.

Tags robotic welding, welding

Manufacturing Through The Ages

Advantages Of Robotic Welding

Robotic Welding Jobs

Robots Answering The Need

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