Five Factors to Consider When Designing Metal Parts

From the cars we drive and the foil we put over our leftovers to the planes we fly and the roofs over our heads, metal is everywhere. Since metal is hailed for its strong and sturdy qualities, it is a leading material used for countless projects all over the world. Today, with improved technology through computer-aided design, it's easier than ever to create your own sheet metal design and watch it come to life through fabrication. However, if you want to save time and money, you must consider a few critical things while designing for your formation process go as smoothly as possible.

What Is Sheet Metal Design?

Sheet metal design is the process of making your sheet metal ideas a reality by forming parts from the sheet metal through processes like punching, cutting, stamping or bending. The design process starts with an idea and maybe even a rough sketch, which can be transformed and upgraded using computer-aided design (CAD). These 3D CAD files are then converted into machine code which controls the machine to start the custom metal fabrication process. During fabrication, the machine will cut and form the metal sheets into your desired end product with ease and accuracy. Since sheet metal is known for its durability, the design process brings you one step closer to creating a strong backbone for your metal project.

The fabrication process starts once your design is complete, using different methods and machinery to create your design based on the results you need. The first step is typically cutting the metal into whatever shape or size is desired, often using laser cutters or shears. After the metal is cut, it can be bent into shape and then drilled, threaded and tapped with holes and any inserts through machining. Then the pieces are connected using welding techniques. Finally, after your project has been double-checked to meet all specifications, it receives a rust-resistant protective powder coat as the finishing touch.

However, before you get into the fabrication process at all, you must keep some specifics in mind. These include the overall function of your design, the method you plan to use for attachments, and both mechanical and manufacturing properties. It's vital to consider manufacturing capabilities while designing to avoid errors during the shop fabrication process. Manufacturers spend an estimated 30 to 50% of their time correcting errors, while 24% of those errors are directly correlated with manufacturability. Errors are usually the result of the gap between how sheet metal is designed in CAD systems and how they are actually fabricated in a shop and can prove to be costly. To avoid these errors, keep the manufacturer in mind by remembering some key metal design fundamentals to aid you in your design process.

Design Fundamentals for Your Custom Metal Project

Engineers who keep the manufacturer in mind could save time and money by taking a more realistic approach rather than an idealistic one. Such an approach could involve adopting a Design for Manufacturability (DFM) strategy, which considers different factors in manufacturing while bringing designs to life. A Design for Manufacturability strategy reduces errors and engineering change orders, decreases part counts and simplifies the design overall, which in turn can save you valuable time and money. This strategy eliminates the gap between CAD systems and fabrication and provides you with sheet metal part design considerations that make your project easier to manufacture. Some manufacturing things you may keep in mind include:

  1. Choosing the right metal

  2. Hole size and placement

  3. How to use hems

  4. Accounting for bend edge distortion

  5. Minimum flange length

1. Choosing the Right Metal

Before getting into some more formation specifics, you should establish your desired metal and thickness for your project by exploring different options. Considering thickness when designing your project is essential as it can affect some aspects of the custom fabrication process, such as bending or cutting. Designs must also maintain a uniform thickness throughout since parts are made from one sheet of metal. Some commonly used metals for projects include steel, stainless steel and aluminum. By learning more about each metal and their different properties, you can determine which would be the best fit for your custom metal project.


Mainly composed of iron and carbon, steel is the most popular engineering material used today. Many look to steel as the standard, likely due to its high strength. Steel can also reduce weight and tends to offer a lower thickness, which could help make your custom metal project feel less bulky. As far as pricing goes, steel is considered the most cost-effective material used in the industry, so it can help you with better affordability.

Stainless Steel

Stainless steel is used everywhere from kitchens and medical environments to buildings and transportation. As a widely-used steel subcategory, stainless steel is a good option for resisting corrosion. Since stainless steel is an alloy with chromium or nickel added to steel, it is also a hard, durable option. However, compared to other standard construction steels, stainless steel tends to be more expensive.


Aluminum offers a low density but also has less strength compared to steel. For example, for aluminum to be as durable as steel, it would have to increase its thickness by about one and a half times more than its steel counterpart. Therefore, aluminum has the potential to be made stronger and can maintain its low weight by increasing its thickness.

2. Hole Size and Placement

During the design process, CAD software can aid in determining size and placement for holes in your metal project. However, you must consider how they will be manufactured in the fabrication process. Messing up a hole's size or placing it too close to an edge or a bend could severely impact your project's durability, appearance, performance and function. Therefore, you need to get hole size and placement down on the first try to protect your project and avoid wasting money and time.

Hole Size

When creating a hole, it's crucial that the minimum diameter of the hole is equal to the material's thickness or 1.00 millimeter — whichever is larger. Having a hole diameter smaller than the sheet's thickness could result in higher punch loading, longer burnish in the holes and excessive burr, a defect in your sheet metal. Holes with small diameters can also cause slug-pulling when the punch is withdrawn, ultimately impacting the life of the punch and the sheet metal. Therefore, it's always better to have a hole with a diameter greater than the sheet's thickness rather than being too small.

Hole Placement

When it comes to hole placement, a good general guideline to follow is ensuring spacing between holes is at least two times the sheet's thickness, if not more. If you create holes that are extremely close together, they're more likely to weaken the space between them and ultimately become one bigger, deformed hole. Maintaining this minimum distance ensures the metal stays strong and the holes keep their original shape during any bending or forming processes.

Similarly, a hole could become deformed if placed near a bend or an edge. If a hole is near a bend, it runs the risk of alteration and additional time and money. To prevent this, make sure the distance between holes and a bend is, at minimum, two times the material's thickness plus the bend radius. If holes must be placed close to a bend, they should be created following the bending process with a secondary drilling operation. When it comes to holes near edges, the results can be equally as damaging and even weaken your metal. To figure out how far to place a hole from an edge, you must look at the size and shape of the hole as well as the material's thickness, as they are directly proportional. Typically, the distance between a hole and an edge should be equal to about one and a half times the material thickness.

3. How to Use Hems

When it comes to sheet metal manufacturing, hemming is a term to describe metal folding back on itself. Hems can create folds in the sheet metal to transform sharp, raw edges and make them smooth and safe to touch. They can also stiffen the sheet metal and create a thicker appearance without adding much weight to the material. Hems are single, 180-degree bends that could be an open "U" shape, a closed hem, or a teardrop hem.

Many avoid using closed hems as they usually fracture at the bend and may cause solutions to be trapped inside during the finishing process. For open hems, the minimum diameter should be equal to the material's thickness and have a return flange height equal to or greater than four times the material thickness. If the inside diameter of an open hem is larger than the material's thickness, the hem can lose its U shape. Teardrop hems should have a minimum diameter equal to the material's thickness and a return flange height that is more than or equal to four times the material thickness. These hems should also have an opening of at least one-fourth of the material's thickness.

When looking at the minimum distance from a hem to a hole, it should equal two times the material thickness plus the hem's radius. The minimum distance between a hem and an internal bend should equal five times the material's thickness, while the distance from an external bend should be eight times the material's thickness.

Hems can help make sharp edges safer, hide imperfections and re-enforce the metal, but they come at a cost. Typically, hems are created during manufacturing using multiple bending strokes or machine cycles, which add expenses and time to your project. Hems sometimes even require different specific tooling setups that could add to costs. If you're thinking about using hems for your metal project, you must weigh your options and determine if it's significantly beneficial. You could also get in contact with the shop carrying out your fabrication process to find out what hem tooling they already have and how it could add to your project.

4. Accounting for Bend Edge Distortion

To form the sheet metal and transform its shape, it must undergo a bending process. It is crucial to design with the metal bending process in mind so you can avoid any torn or misshapen metal. As a general rule, bends on the same plane should be going toward the same direction as to prevent reorientation and save you time and money. The bend radius should also be consistent for parts to stay affordable. Typically, the smaller the radius, the better, but the minimum radius inside of a bend should equal the material's thickness. To take appropriate precautions against tearing or deformation during the bending process, you must also understand bend relief.

Bend relief creates a space between bent and unbent surfaces to make the edge of the sheet metal perpendicular to the bend by creating an incision down the sides of a planned bend. With the space created using bend relief, it creates a gap between the bend and the material around it. This allows the sheet metal to be easily and cleanly shaped in the press brake come fabrication time. Bend reliefs are not necessary for every design. However, they are vital when it comes to any material you want to protect on either side of a bend that would otherwise tear.

As a general rule, bend relief length should exceed the radius of the bend, and the width of the bend relief should at least equal the material's thickness. The bigger the bend relief, the easier it typically is to line it up over tooling in the formation process, reducing costs and minimizing set-up time. This process also helps eliminate all cracking and tearing and can be shaped according to your design.

5. Minimum Flange Length

During the bending process, metal can be formed into flanges, which can help speed up and simplify your design's fabrication process. The shop's press brake machine can limit the size of the flange to be bent. To determine the minimum length of a bent flange, you must look at the material's thickness, bend radius and length of the bend as they're all related. Typically, though, flange width can never be less than four times the thickness of the sheet metal. If those requirements aren't met, it could leave a mark on the material's surface during manufacturing.

Contact APX York Sheet Metal for Custom Design and Fabrication Services

From the early stages design to completing custom fabrication, designing metal parts can be a long and complicated process. With our specialized software and tools to support the design and manufacturing processes, APX York Sheet Metal can create accurate metal fabrication designs that are both efficient and functional. With more than 70 years of experience in the industry, we welcome both the broadest and the most intricate metal fabrication design jobs for various industries across Pennsylvania and Northern Maryland. Contact us today for a free quote or call us at 717-767-2704 to get started.

Sheet Metal Fabrication Costs

If you need a specialty part or piece fabricated from metal for a specific requirement, contact APX York Sheet Metal. We offer expert custom metal fabrication to businesses in the mid-Atlantic region and specialize in bending, laser cutting, welding, grinding, inserts and powder coating. We complete all processes at our Pennsylvania facility.

Custom sheet metal fabrication creates strong parts that last and can be used in a wide range of industries. Ultimately, the decision to use custom-fabricated components will save your business money. But machinery and labor expenses can drive up costs if the fabrication process is not handled correctly. That's why you need APX York Sheet Metal.

Why Is Sheet Metal Fabrication Expensive?

Sheet metal fabrication is expensive because the tools and machines required to cut, bend and finish are costly. In addition, the labor required to operate these tools and machines is expensive. The more intricate the design and the bigger the quantity, the more your job will cost.

The good news is that purchasing a fabricated product made by experienced technicians saves money in the long run. That's because fabricated metal is exceptionally strong and much less likely to degrade in high heat. Plus, metal can tolerate a broad range of fabrication processes — many more than plastic.

Ultimately, custom metal fabrication winds up costing less, especially if you need a bigger production run.

Ways to Reduce Manufacturing Costs

At APX York Sheet Metal, we understand that you want to get the strongest, best-made custom fabricated parts at a fair price. In order to save on manufacturing costs, we recommend:

  • Asking for our advice. Take advantage of our 71 years in the business. Our fabricators have built nearly countless products, and many might be similar to yours. Don't hesitate to ask if you think there may be a better way.

  • Inquiring about new processes. APX York Sheet Metal constantly updates our machinery and processes. Ask us if there are fabrication alternatives that could save you money.

  • Using the right material. APX York Sheet Metal can help you choose the right metal or alloy for cost savings, especially if you are creating a prototype.

  • Simplifying your design. Complex designs with small bends, thick gauges and tight tolerances are costlier to produce. We may be able to help you simplify your design to reduce manufacturing costs.

About APX York Sheet Metal

APX York Sheet Metal is a family-owned business with a 71-year history in the industry. Many of our employees have over 25 years of experience. This allows us to provide an exceptional level of service and know-how, whether you bring us a large job or a smaller specialty project.

APX York Sheet Metal is a one-stop shop. We do not outsource any part of the sheet metal fabrication process, including powder coating and shipments. We offer fast turnaround times and free quotes. When you need expert custom metal fabrication services, contact APX York Sheet Metal for more information.

Contact APX York Sheet Metal Today

APX York Sheet Metal is proud to be a leading sheet metal fabrication company in the mid-Atlantic region. We use the highest-quality materials and the latest technologies to fabricate sheet metal expertly and efficiently.

For more information about APX York Sheet Metal, or to inquire about pricing on your custom metal fabrication job, call us at (717) 767-2704 or complete our online contact form today.

Metal Stamping vs. Metal Fabrication

Manufacturing metal parts can involve one of two processes — metal stamping or metal fabrication. Some facilities specialize in one or the other, while others implement both approaches. At APX York Sheet Metal, we use metal fabrication techniques that let us scale our services to your project. Learn more about the difference between metal stamping and fabrication in this blog post.

About Metal Stamping and Metal Fabrication

Metal stamping and metal fabrication involve different manufacturing techniques and machinery. These definitions can clarify the purpose of each approach:

  • Metal fabrication: During metal fabrication, technicians use a variety of processes to develop custom parts. This technology uses methods such as cutting, bending and assembly to meet design specifications. Metal fabrication involves specialized equipment that can use computer automation to make the process more efficient. Modern fabrication machines use advanced technology to shape metal with precision.

  • Metal stamping: The metal stamping process focuses on machine presses and stamping presses. These machines take a sheet of metal and use custom-made dies and tools to create the specified shape. A press uses techniques such as stamping, pressing, bending, stretching and folding to form parts. Metal stamping can provide tight manufacturing tolerances in specialty applications.

Both of these processes have benefits and disadvantages to consider during manufacturing. The differences listed below can impact your project's lead time and results.

Lead Times

The custom die used in metal stamping results in a much longer lead time than for the metal fabrication process. For every project created with metal stamping, the operator needs to develop tooling. Meanwhile, metal fabrication can have rapid prototyping that quickly transitions to the design-to-production cycle.


During production, operators may need to make changes to the original product design. Once the shop creates custom tooling, attempting to change the design becomes difficult because they have to modify the die. The machines used in metal fabrication can handle design changes throughout production because of their programmable nature.

Length of Production

Metal stamping and fabrication suit different lengths of production. While metal stamping has more ease handling large-volume runs, it has a high initial cost that may not suit short runs. Metal fabrication suits longer production runs that require short lead times. It can also manage low product quantities more economically than metal stamping.

CNC Capabilities

Computer numerical control (CNC) machines use computer programming to automate manufacturing. This technology allows you to work with data such as a CAD file to create a custom design. Many forms of metal fabrication equipment can use CNC to perform automated machining processes. Metal stamping requires the use of a die to create custom shapes instead of CNC technology.

Degree of Customization

Precision technology allows metal fabrication and stamping processes to offer a high level of customization. Metal fabrication involves specialized equipment with CNC capabilities that can customize a design to exact specifications. The dies used in metal stamping can also define complex details in a part.

Count on APX York Sheet Metal for Metal Fabrication Services

APX York Sheet Metal serves as your one-stop-shop for the metal fabrication process. Our services include design, machining, welding and coating for creating a product from start to finish. We perform our processes in-house to give you consistent, high-quality results. To request a free quote on your next metal fabrication project, contact us online today.

What is CNC Machining?


CNC machining isn’t difficult to understand, and with a brief explanation and some background knowledge, anyone can make sense of the basic processes this type of manufacturing uses. If you’re like most people, however, you probably don’t know much about CNC machining because it isn’t something you encounter very often. It’s likely the majority of people who know a bit about CNC machining only do so because it’s part of their industry or because they’ve needed to interact with it in some way.

Are you looking to purchase or use fabricated metal, plastic, wood or foam? If so, it likely won’t be long before you start encountering concepts like CNC machining. Once you do, it can be difficult to discern whether or not this type of metal fabricating is right for your purposes without first possessing a basic understanding of what CNC machining is, how CNC machines work and why some businesses choose it over comparable options.

We want to help give you the background you need to make an informed decision when it comes to purchasing the fabricated metal that will be right for you. That’s why today, we’ve compiled this guide to the basics of CNC machining. By perusing this guide, we hope you’ll be ready to make the decision you need regarding your next step forward.

The Basics of CNC Machining

CNC machining is a manufacturing process where precisely programmed computer software controls the movements of factory equipment, tools and machinery. The acronym stands for “computer numerical control,” which references the fact that carefully coded computer commands control the entire machining process. CNC machine experts use these commands to operate factory machines, which in turn execute these commands to manufacture a completed product.

The primary process CNC machining improves upon is the process whereby operators would manually control every movement of the factory tools. An operator would need to stand at each factory station, physically operating the lathes and mills to create the desired final product. With CNC machining, however, these operators are no longer needed, creating a process that’s safer, faster, more efficient and often more effective.

CNC machining is compatible with an incredible range of tools. From plasma cutters and lathes to lasers and mills, machinists can dictate the movements of these and many more devices, all down to the smallest and most precise movements, to create uniform finished products.

How Do CNC Machines Work?


CNC machining is a complex process that breaks down into several different steps, all of which are crucial to achieving the finished product. If the factory or machine shop in question neglects any of these steps, the process will not work. To get a better understanding of how this process works, let’s examine it from start to finish.

1. Designing the Model

The very first step in the process of CNC machine programming is creating a model that will be the basis for the finished product. Engineers and designers will complete this process using software such as a computer-aided design (CAD) program, where they can create, manipulate and render a 3D model. Within the confines of this software program, they will create the design, tweak it, adjust and otherwise shape it until they confirm it is exactly the design they want.

Because CNC machining will eventually build this design, the software will typically not allow for the creation of anything that is beyond the limits of the machines. In other words, if an engineer tried to design anything the machines wouldn’t be capable of creating, the software would not allow it, notifying the designer that their model was unfeasible.

Once the design is complete, approved and shown to be compatible with the CNC machining technology, it’s time to move on to the next step.

2. Converting the Design

Now that the design is ready to go, the engineers need to translate it into a language the CNC machines can understand and interpret. To do this, workers will run the CAD model through a program that extracts the precise geometry of the design and converts it into a code that is compatible with the machines the engineers will then use to create the full-sized version of the design.

This extracted code is a combination of computer languages that work together to control different machine functions. Most notably, these include the programming languages commonly known as G-codes and M-codes. The G-code, also known as the geometric code, controls the bulk of the machines’ movements, including when, where and how they move as well as when they turn on and off and what paths they take to reach a specific location. The M-code, which stands for miscellaneous function and controls auxiliary functions, works to control additional movements like the replacement and removal of the machine covers at the beginning and end of the process.

After extracting this CNC program from the original design, the machine operators will load this code into the CNC machine.

3. Setting up the Machines

Before the machine operators can initiate the program and let the physical process begin, they’ll need to make sure the machines are ready and in position. That means they’ll need to add or remove all the proper and necessary attachments, move machine components into place and attach extra pieces such as drill bits and end mills. They’ll also need to perform safety checks to make sure no one and nothing is in the way of the machines.

Once the operators are sure everything is ready to work and there are no obstructions anywhere in the way, it’s time for the final step to begin.

4. Executing the Program

By initiating the program, the entire machine will begin to move. The CNC program extracted from the CAD design acts like a set of instructions, telling each machine exactly when to move and where to work to create the desired finished product.

Typically, this process involves a solid piece of material, such as a sheet of metal. The various tools and machines then work to carve, drill and cut away at this piece of metal, working to shape it into the design as dictated by the digital instructions they’re receiving from the CNC program.

What Pieces of Equipment Use CNC Programming?


We’ve already mentioned that CNC coding can control a wide range of various tools and pieces of machinery. But how far does that range extend? How many types of CNC machines are there, and what are they? It’s challenging to write a comprehensive list, as different CNC machine shops will use different tools depending on the types of products.

This list, however, includes the most common tools many CNC machining sites use.

  • Milling machines: These can either be purpose-built with the intent of using CNC machining, or retrofitted out of ordinary milling machines to be compatible with CNC technology. Either way, they perform the same function of using rotary cutters to remove sections of raw material.

  • Lathes: Lathes can also be designed specifically for CNC machining or can be retrofitted after the fact to be compatible with the new technology. In either case, their function remains the same as they cut, drill, sand and turn the material symmetrically.

  • Routers: These tools are exclusively for CNC machining and have no other function. You won’t likely find them used in any other industrial setting, as they’re incompatible with anything but CNC technology. Their purpose is to help produce parts with large dimensions smaller tools couldn’t handle, typically by cutting away at materials such as wood, metal or plastic.

  • Plasma cutters: CNC plasma cutters are those designed with the express intention of usage with CNC machining. They are quite similar in setup to CNC routers, but they don’t require quite such a heavy-duty makeup, as they don’t need to drag around a heavy tool. Instead, they use a plasma torch to cut two-dimensional shapes into sheet metal.

  • Laser cutters: Laser cutters exist outside the realm of CNC machining, but the ones we’re discussing here are those designed for exclusive use with CNC programming. They work similarly to a plasma cutter, except that they use a powerful laser to perform the cutting work, and can cut through metal, wood or plastic, depending on the exact strength of the laser used. These are a particularly essential component, so much so that APX York Sheet Metal has three of these tools used among our sister companies and us.

  • Pick-and-place machines: Just as the name suggests, these machines’ job is to pick components up, move them to another location and set them down again. They do this by using a vacuum to pick the piece up, before shifting and setting it down again in its new location. This ability to move and place tiny components is particularly crucial when building devices with a circuit board component.

Specific CNC machining services may use more components than this, or they may have fewer. It depends on what material the machine shop is working with, what they’re looking to do with the material and what type of processes will be necessary to achieve this. Nevertheless, this list represents a few of the most broadly used tools across the industry.

What Are the Benefits of Using CNC Machining Equipment?


In the grand scheme of the history of machining and industrial production, CNC machining is a relatively new development. It has existed since the 1940s when machinists would retrofit pre-existing machines to fit with the new technology. Today, most CNC machining involves machines that have been specifically designed to complement the computer technology.

Of course, if CNC machining is still relatively new, that leads us to some questions. What techniques did machinists use before CNC machining? More importantly, what makes CNC machining superior to these older methods, and what benefits does CNC machining offer that other methods do not?

1. It’s Safer

Older methods of machine operations required operators to stand at the machines themselves, physically operating them and moving the various components around. By extension, this required human operators to work next to dangerously sharp moving parts. This proximity naturally meant the risk for accidents was higher.

CNC machining eliminates this danger, as human operators do not have to be near the tools as they work. All they need to do is operate the computer controls that set the machines in motion, then watch a safe distance as the machines carry out their predetermined code to create the desired product. The risk of injury is slim to nonexistent.

2. It’s More Precise

No matter how skilled machine operators are, they’re still human, and that means that their work will likely not be as uniform and precise as that of a machine operating according to strict instructions. A human operator might produce 100 items that are all nearly identical, but close inspection will almost certainly reveal slight differences between the different objects.

A machine, on the other hand, will produce the same item every time. The only reason there might be differences between products is if there is an error in the programming or if something goes wrong with the machines. If everything goes according to plan, however, those 100 items will all be perfect copies of each other — completely uniform and exactly matching.

3. It’s Faster

When human operators are manually performing every step of the process, it takes time. CNC machining, on the other hand, allows for multiple parts to be moving at the same time and many operations to be carrying on in the same moment. Everything is automated, with no need for hesitation between one step and the next. The result is an operation that’s far faster and far more efficient than any other type of machining production.

Choose APX York Sheet Metal for Your CNC Machining Needs

CNC machining can be useful for a whole host of different industries, such as aerospace and communications. Are you part of an industry that frequently makes use of CNC machining? Are you looking for a machine shop to handle your CNC machining needs? We invite you to come and visit us here at APX York Sheet Metal.

We’re a custom sheet metal fabrication shop based out of York, Penn., where we’ve been family-owned for the past 71 years. Not only that, but some of our team members also have more than 25 years of experience in the industry, meaning we have the background and in-depth industry knowledge to provide you with the services you’re looking for. We pair this industry expertise with personalized customer service, quick turnaround times and a one-stop-shop experience where everything gets completed in-house for a CNC machining experience that gives you the individual attention you deserve.

Are you ready to get started discussing your next CNC machining project? Contact us to get the conversation started and to request a free quote for your project.

Choosing Sheet Metal Thickness

Custom sheet metal fabrication is a precise art and science. Creating the sheet metal that goes into your design revolves around bonding, forming, cutting and assembling pieces that fit together as an object or machine. At APX York Sheet Metal, we perform custom sheet metal fabrication to meet the demands of projects both large and small.

We serve a variety of industries. So how do we go about selecting the proper thickness for sheet metal projects?

How to Decide Sheet Metal Thickness: The Bigger Picture

Sheet metal can be crafted into just about any object imaginable. Using custom sheet metal technology, our experts mold tailor-made pieces to suit companies across the Mid-Atlantic region. We are able to create a number of custom projects for businesses thanks to sheet metal's pliability.

What do we mean? Sheet metal is available in a variety of thicknesses to match what our experts are trying to build. One of the most important parts of custom sheet metal fabrication is selecting the correct gauge for the job.

Sheet Metal Qualities

Selecting sheet metal thickness requires familiarity with material gauges. With custom sheet metal fabrication, always note that the higher the number of the gauge, the thinner the metal. The thicker the piece of sheet metal, the heavier in weight the material is for building.

Our team has to pay close attention to these factors when serving clients because sheet metal objects can be dangerous if weight and thickness are ignored. APX York Sheet Metal measures gauge down to the thousandth of an inch to ensure even balance and to create a tight fit for all the pieces of your project.

Why Sheet Metal Thickness Matters

The thickness of sheet metal affects the workflow of a job from beginning to end. With each custom sheet metal fabrication design, our team plans every move to match the blueprint. This means that how we go about completing projects depends on the thickness of the material we are working with.

Steps in the custom fabrication process such as bending and cutting require us to choose the proper thickness and tools for each job. Sheet metal that is smaller in gauge calls for more pressure to bend and stronger equipment to cut with ease. Fortunately, our team has the skills, tools and knowledge to laser-cut, bend, weld, grind and powder-coat sheet metal for any size project.

Working With APX York Sheet Metal

Completing custom sheet metal fabrication is a complicated process, but APX York Sheet Metal understands how to make products both efficient and functional. We take the necessary steps to discover as much as we can about your product and fabrication needs. Whether your design will be exposed to intense weather conditions or holds immense weight, APX York Sheet Metal creates custom sheet metal fabrication parts for a number of industries throughout Pennsylvania.

With 71 years in business, our family-owned operation specializes in OEM manufacturing parts, industrial enclosures and cabinets, construction equipment and more. We offer a quick turnaround on custom sheet metal fabrication and shipping is handled in-house for accuracy.

For more information about APX York Sheet Metal and our services, contact us for a quote today to see how we can bring your next project to life.