As a supplier, STAUB Manufacturing Solutions has seen its share of product designs that don’t always yield the most economical results.  However, this can be avoided. Often times when a new product is being sourced, the fabrication supplier is typically only brought into the process after the engineering and designs are already finalized. What may have seemed like a trivial choice in the development stage, may unintentionally add significant cost and time to the fabrication process. In this installment of our Smart Fabrication Sourcing series, we’ll show why it’s a better practice to collaborate with your supplier during the product development phase.

While there are certainly more, here are five areas that can see benefits from collaboration.

  1. Use off-the-shelf tooling. Tooling is far more important than people realize. Often Engineers / designers will specify a bend radius or geometry that can only be made using custom tooling. Sometimes a slight change in the design can result in utilizing off the shelf tooling instead of having tooling custom made. Using custom tooling often results in extra costs and production delays.
  2. Avoid specialized fabrication materials. Steering clear of specialized or rarely used materials is another way to keep costs down. We’re not suggesting that you sacrifice production quality by choosing a lower-quality alternative. Rather, we’re recommending that you select an option that has similar properties and is more readily available. (e.g., choosing 304 stainless steel over 409 stainless steel). Of course, there are always exceptions to this rule, but using an uncommon material will certainly drive the price higher and often results in waiting months just for material to show up.
  3. Stay open to lower-cost assembly options. Designers often assume that there’s only one assembly method that will suffice for their product. Often times a qualified supplier will have other ideas that can help take cost out of the product. For example, rather than selecting a welded assembly, sometimes mechanical fastening such as riveting could achieve the same end goal at a much lower cost, especially on light-gauge materials.
  4. Don’t be finicky about fasteners. Fasteners, inserts and hardware are among the small design details that can have huge impacts on costs and production timelines. We currently manufacture a product using custom made fasteners. Besides being expensive, it takes anywhere from 3 to 6 months just for the fasteners to arrive. Most suppliers point their customers to the PEM catalog to select from readily available fastener inventories — avoiding potential complications, costs and delays.
  5. Finishing strong, lowering costs. Finishing may be one of the last steps in the process, but it should be an early design consideration for managing costs. Common finishing methods — such as powder coating, e-coating and zinc plating — are typically among the best options. Less common finishes like chromate plating, nickel and custom blend powder coats are typically more expensive. Unless a premium finish is required, consider a more common options to keep project costs to a minimum.

We recently did a project for an electronic systems manufacturer where they included us in the design process. We were able to eliminate a lot of cost by reducing the amount of weld (which is very labor intensive) as well as reducing the complexity of the components which made things much easier to manufacture and cheaper to produce.

When launching a new product, make an effort to collaborate with the fabrication supplier that you trust. Involve them in the process and, when you’re ready for production, you’ll find that your costs are lower, manufacturing goes smoother, and there are fewer quality issues.

In our next Smart Fabrication Sourcing post we’ll look at the differences between Fabrication and Stamping and what the best production volumes are for each service.

Doing business in a challenging economy and competitive marketplace can be a tricky proposition. Faced with shrinking profit margins, it’s understandable why many tier one manufacturers are trying to trim expenses within their supply chains. As a result, the search for a fabrication supplier is often driven first by cost concerns. But if your goals are to minimize expenses and maximize profits, it is important to understand the potential negative impact of accepting the lowest bid.

At STAUB Manufacturing Solutions, we have worked with many manufacturers who have made the mistake of accepting the lowest bid and then turned to us to help fix their issues. In this installment of our Smart Fabrication Sourcing series, we will explore the risks, consequences, and true costs of chasing the lowest-price fabrication bid.

Consider the hypothetical scenario below for an illustration of what is at stake.

A fabrication buyer requests multiple bids for 500 steel brackets per month for 12 months (6,000 units per year). Supplier quotes range from $3.50 to $4.35 per bracket ($21,000–$26,100 annual). The buyer selects the lowest price, expecting to save $5,100 per year compared to the highest bid.

But, during the 12-month contract, that low-priced supplier had significant production and quality issues that impacted the manufacturer’s project timeline. The supplier missed the monthly delivery target six times and delivered out-of-tolerance and/or unusable parts four times.

The production impact to the manufacturer from these supplier missteps was considerable:

  • 35 hours of lost production time from waiting on parts
  • 25 hours of product management staff working through all the issues
  • 20 hours of quality assurance time inspecting product defects

When you do the math, it turns out that the actual cost of selecting a low-price supplier was even higher than the highest bid:

  • Purchased cost = $21,000
  • Lost time expense (80 hours at $85) = $6,800
  • True cost = $27,800 (6.5% more than the highest bid)

Unfortunately, the repercussions of selecting a low-price supplier can go well beyond short-term profit losses. Production delays can damage your reputation and hurt relationships with long-time, loyal customers. At the end of the day, the opportunity costs from the hassle, frustration and potential loss of future business are incalculable.

If you’re ready to work with a team that’s committed to getting it right the first time, reach out to the fabrication experts at STAUB. We will help you protect profits and your reputation by developing a true-cost, high-quality bid.

In our next Smart Fabrication Sourcing post we’ll review the five mistakes to avoid when designing fabricated sheet metal parts.

As a busy professional buyer, you don’t have any time to waste. When you reach out to a fabricator for a parts quote, you want a quick, accurate response and not a lot of hassle. The last thing you need is an inbox full of questions or a quote that is incomplete. But too often that’s what happens.

In this installment of our Smart Fabrication Sourcing series, we share the six essential items to include in your RFQs to expedite the quoting process, improve quote accuracy, and save you valuable time.

Before you submit your next request for quote (RFQ) from a metal fabrication supplier, we recommend taking some extra time to prepare a complete description of key project requirements. From our experience, nothing slows down the quotation process more than having to stop and ask questions. And nothing is worse for a buyer (and the supplier) than running into production surprises from having missed a key requirement in the quoting process.

Your goal should be to provide enough documentation and production details to eliminate the need for any follow-up clarifications. Trust us. The upfront time you spend will be well worth the backend results! The following tips should help you to check every box on your quote preparation checklist.

  1. Complete design data. Providing a supplier with up-to-date part drawings and 3D CAD models is essential to the fabrication quoting process. These two items contain most all of the important information that will need to be considered. Drawings identify product tolerancing and key characteristics and 3D CAD models (e.g. STEP, or SolidWorks files) are used to develop laser cutting and forming simulations, which ensure the accuracy of the pricing and keep costs low.
  2. Material (metal) specifications. Include the material type, nominal thickness, grade (if applicable), and any special sourcing requirements (e.g. DFARS, domestic only). A common issue we see is a material specification that is not readily available in the sheet metal marketplace, such as a hard-metric nominal thickness or an obscure alloy. is a good quick online resource you can use to verify general sheet metal availability. The other issue we see is specified materials that are not good for fabrication. For example, 6061 aluminum is great for machining and alright for welding but not good for forming (it cracks). 5052 aluminum is a much better all-around alloy for fabrication.
  3. Finishing details. Plating and powder coating are the most common finishing options that our customers request. It’s likely not possible to be too specific on these requirements. What slows the quoting process down is if the request is too vague, such as saying that the parts need powder coated “white.” Believe it or not there are many different shades of white as well as a variety of powder types (for various uses) and powder manufacturers. Providing your fabricator with a specific powder manufacturer (eg. Sherwin Williams) and the powder product number takes out all the guesswork. At a minimum, you’ll want to include an RAL number which aids in color matching.
  4. Final packaging. You want your fabricated product to arrive at its destination in good shape and in a form that’s good for the next step in the process. Identifying how the fabricator should package the product is an important part of that. The packaging might be as simple as stretch wrapped to a pallet or bulk packed in a gaylord box, or you might need custom boxing, especially if the parts have an odd shape or require special protection.
  5. Quality approval and inspection. Do your products require first article inspection (FAI) or production part approval process (PPAP) quality validation? If so, first make sure your supplier has these robust quality capabilities, and then specify the process validation and inspection requirements for all applicable parts.
  6. Production volume and timeline expectations. Finally, it’s important to provide your estimated production volume and anticipated deadline. This will aid your supplier in evaluating their workload and capacity to determine if they’ll be able to meet your project requirements or if they’ll need to propose a modified timeline.

If you include these six items whenever you request a fabrication quote, you’ll notice that you get quotes back faster, they’ll be complete and accurate, and you won’t be pestered with nonstop questions.

We hope these tips will help you prepare for your next RFQ. If you have any questions about starting a new project, the team of fabrication experts here at STAUB are happy to speak with you. In our next post, we’ll discuss the high cost of selecting a low-price fabrication bid.

In the previous installment of our Smart Fabrication Sourcing series, we explained the importance of conducting an onsite visit to get a firsthand look at a supplier’s operation. How else can you truly know if they have the necessary capabilities and quality processes to produce consistently reliable results? It’s also an opportunity to get a feel for a supplier’s culture, which is an intangible variable that is too often overlooked. In this post, we’ll offer four key culture-related questions to help you uncover what makes a supplier’s organization, employees and processes tick.

If you look at your preferred supplier list, chances are they all have one thing in common: a heathy, thriving organizational culture that fosters high quality and successful processes. But how can you evaluate the culture of new suppliers? First, it’s important to conduct an onsite visit to get a feel for their day-to-day operation.

While you’re there — or at any other point in the evaluation process — don’t be afraid to ask pointed questions that will uncover their professional integrity. Sometimes it’s best to meet potential suppliers on neutral ground or an informal setting, such as over lunch or dinner. This provides an opportunity to speak candidly and to see their personality traits in real time.

Although company culture is a subjective, intangible metric, we believe it’s a key indicator of a successful partnership. In fact, we would recommend not making a final supplier decision until you’re sure that their core values align with yours.

For conversation starters, consider these four questions:

1. What are your values? Loyalty. Quality. Timeliness. Precision. Service. Adaptability. These are all characteristics that define an organization’s values. Don’t hesitate to ask them which values matter most to them, and then carefully consider their responses. Request additional clarifications as needed. Are they responding with hollow cliches or are they being honest and sincere? Your goal is to try to uncover how they would define the term “valued partner.”

2. What is your hiring process? Today’s labor market is tight, and qualified workers are hard to find. If a supplier is willing to cut corners in the hiring process, then they likely won’t be able to consistently deliver on their promises. Without the right staff, processes are more likely to break down — and you’ll be left to pick up the pieces. If a potential supplier is selective in their hiring processes — giving equal weight to attitude and skill level (which can be taught) — you’ll be more likely to experience high-quality, long-term results.

3. What is your employee turnover rate? Workforce stability is an essential metric in determining if a supplier can consistently deliver high-quality, on-time products. It’s completely within your right to ask a potential supplier what their employee turnover rate is, how long their current staff has been employed and how committed they are to fostering a thriving, healthy workplace environment. If they freely introduce their staff and employees to you, it’s a good indication that they have nothing to hide.

4. How do you handle unexpected problems? It’s inevitable that every supplier — regardless of their experience or capabilities — eventually will encounter problems. Equipment failures, supply chain issues, or any number of unforeseen issues will surely arise. What matters is how they will respond to these challenges. Try to uncover if they’re inclined to assume responsibility and take immediate steps to make things right. Or do they seem defensive, point fingers, make excuses and shift the blame? Ask them to describe their resolution process. Is it focused on protecting their reputation, or is it geared toward minimizing impacts to your operation?

At the end of the day, you should walk away with the confidence knowing that their culture and values align with yours.

In our next Smart Fabrication Sourcing post, we’ll share what you can do to get fast, accurate, and competitive quotes from your fabrication suppliers.

With today’s supply chain complexities and economic uncertainties, sourcing a reliable metal fabrication supplier is more important ever. Choosing a partner that’s committed to your success, profitability and reputation adds predictability to your production schedule and takes one less worry out of the process. But how can you be sure that you’ve selected that partner? In this installment of our Smart Fabrication Sourcing series, we’ll explain why conducting an onsite visit is essential to ensuring success.

When it’s time to source a new supplier for an upcoming metal fabrication project, many manufacturers run through the familiar steps of a typical evaluation process. They often start with a simple web search, comparing capabilities and building a list of supplier prospects. Next steps often include sending out requests for quotes, scheduling introductory conference calls, negotiating on prices, and narrowing down the list down to the top candidates.

In most cases, manufacturers looking for new suppliers are up against tight production deadlines. In their haste, they often shortcut the evaluation process, settling for the first supplier that offers a low price and promises they have the right capabilities. But without taking the time to fully vet the potential supplier by meeting them in person, they are taking a great risk.

They’ll often realize their error too late — when that new supplier has either missed the production deadline or delivered products that don’t conform to the requirements. This mistake is not only costly, but it can put your production behind schedule for days, weeks, or even months.

From our experience, if you want to ensure that a supplier’s capabilities, culture, and commitment to delivering quality parts align with your company’s expectations; before awarding the bid, take the time to schedule an onsite visit to a supplier’s production facility.

If you’re sourcing precision-fabricated metal parts from a new supplier, conducting an onsite visit gives you the assurance that they’re capable of delivering on-time, on-budget and at quality.

Without conducting an onsite visit, how can you really know if a supplier’s facilities are equipped with the necessary technical capabilities, stringent process and quality controls, and specialized experience to produce your parts consistently? Can you really trust that their production process operation operates as efficiently as the pictures on their website might indicate?

Suppliers who care about winning your business will welcome this opportunity to meet you in person and prove that they have the specific capabilities you need. In fact, if they’re not willing to offer an onsite visit, it may be a red flag that they may have something to hide.

By gaining an inside look at a supplier’s operation, you’re able to meet their sales and production teams in person, take a personalized tour of their facilities and walk away with much clearer picture of their capabilities — and the assurance knowing that that they can meet your specific production timelines and/or fabrication requirements.

When visiting a supplier’s facility, be sure to look for these key process and quality indicators:

  • Review their systems and learn how they monitor quality metrics.
  • Understand their processes and watch how information flows through the operation.
  • See samples of their work and verify proof of their past successes.

An onsite visit gives you the insight that you simply can’t get from browsing a website, reading a brochure, or reviewing an equipment list. At the end of the visit, you should have no doubt about a supplier’s capabilities — and that their definition of quality and commitment meets your standards.

In the next post of our Smart Fabrication Sourcing series, we’ll review four key questions to ask during an onsite supplier evaluation.

Have you ever worked with a metal fabrication supplier that didn’t quite meet your expectations? Or worse, completely dropped the ball and botched your production process? Whose fault was it? Did the supplier not perform the work as quoted? Or did you leave gray areas in the quote that they misinterpreted?

With today’s supply chain complexities, selecting the right metal fabrication supplier is more important than ever. Manufacturers need to do everything possible to limit production disruptions and minimize the potential for a variety of unpredictable setbacks. A successful supplier partnership can make the difference between success and failure, profit and loss, frustration and peace of mind.

Through the years, we’ve learned what it takes to become that reliable, high-quality metal fabrication partner that manufacturers are looking for. Today, we’re launching a Smart Fabrication Sourcing series to share some of our tips and best practices for getting the results your company needs to be successful.

Whether you’re sourcing a new supplier or working with an existing partner, there’s a lot that can and will go wrong if you’re not paying attention to every detail. Although there’s usually plenty of blame to go around, in many instances these problems could have been avoided altogether.

Of course, hindsight is 20/20, but wouldn’t it have been nice if your fabrication partner would have uncovered these issues before it disrupted your production schedule? In our 25+ years of being a supplier to OEMs and tier one manufacturers, we’ve been called in to pick up the pieces many times after another supplier has dropped the ball. Some examples include:

  • Front-end quoting miscommunications that led to back-end production mistakes.
  • Small finishing or assembly details that got overlooked in the rush of compressed timelines that cause big problems at launch.
  • Incomplete or faulty parts from a supplier that misrepresented their capabilities.

So, if you’re looking for ways to get your sourced metal fabrication products right the first time, our new Smart Fabrication Sourcing series will deliver the proven tips and best practices you need to be successful. From supplier evaluation and quoting to capabilities and culture to quality processes and fabrication strategies, we’ll explore all the key considerations for building strong fabrication supplier partnerships that will give you the predictable, high-quality results you want.

Next week, in our first post of this series, we’ll explore the critical importance of the Onsite Visit.

Sheet metal products serve a vast array of purposes in modern society and are a common fixture in the manufacturing, industrial, and transportation industries. Among other beneficial properties, sheet metal displays excellent strength, durability, and longevity. Yet in certain environments, those properties can be compromised by corrosion and other forms of structural degradation.

Manufacturers frequently apply a surface coating to protect sheet metal from unwanted oxidation. Two of the most common protective strategies are zinc plating and powder coating. This article takes a closer look at what each of these methods entails, as well as the relative merits to consider when choosing between the two.

Zinc Plating

Zinc plating, one type of galvanization, involves applying a thin layer of zinc metal onto the surface of another metal through a process known as electrodeposition. The zinc forms a protective layer, physically preventing oxidative forces from corroding the surface of the base metal; this is often referred to as the substrate.

Many people mistakenly assume that the zinc itself remains completely immune to corrosive action. This is not the case, however. Zinc instead offers what is known as cathodic protection. In other words, the zinc makes itself available to corrosion, thus protecting the underlying substrate.

That said, zinc has a higher degree of natural corrosion resistance than steel. This resistance has to do with zinc’s ability to form basic carbonate films. The actual corrosion rate of zinc depends on environmental factors such as the amount of moisture present, how quickly the surface dries, and any industrial pollution that may be present.

The Zinc Plating Process

Zinc plating is a complex, multi-step process requiring a large amount of specialized equipment. The first step involves preparing the substrate with a thorough surface cleaning. If any debris, rust, or contaminants remain present, the zinc may fail to adhere properly. Substrate cleaning is usually accomplished with an alkaline detergent solution followed with an acid treatment to remove any corrosion.

The actual coating process takes place in an electrolyte solution known as the plating bath. This bath consists of the zinc itself—present as an ionic solution—as well as various other needed chemicals. The substrate is introduced to the plating bath in one of two ways. So-called barrel plating involves placing loose pieces directly in a barrel, where they encounter the plating bath.

Barrel plating offers quick and consistent results. Yet some parts are either too large or too fragile for this method. In that case, the substrate pieces are affixed to a rack plating system and immersed in the bath. In either case, an electrical current is then introduced to the plating bath, causing the electrodeposition process to lay down a layer of zinc on the substrate.

Powder Coating

Powder coating takes a much different approach to protect a substrate against corrosion. Whereas zinc plating works through cathodic protection, powder coating utilizes barrier layer protection. In other words, powder coating involves the formation of an impenetrable outer layer, which prevents water and other oxidizing materials from accessing the susceptible metal.

Powder coat is made up of a paint-like, organic material consisting of pigment and resin. These finely ground particles are given an electrostatic charge and then sprayed onto the substrate. The charge allows the particles to adhere to the surface. Heat is then applied in order to melt the particles, fusing them together in a continuous, uniform layer.

The Powder Coating Process

As with zinc plating, the powder coating process begins with a thorough chemical cleaning of the substrate. The goal is to remove any dust, grease, oil, rust, or other contaminants and ensure optimal adherence. Once the substrate is clean, the powder is applied using an electrostatic spray gun.

A pumping device sends powder from the feed hopper, through a series of hoses, to the spray gun. Not only does the spray gun direct the flow of powder, but it also imparts the electrostatic charge that allows the particles to stick to the metal. The application process usually happens inside a spray booth. A built-in powder recovery system collects any overspray and routes it back to the feed hopper.

Once the sheet metal substrate has been completely coated, the powder must be cured. This commonly takes place inside either convection or an infrared oven. At a certain temperature, the powder melts, flowing together into a continuous film. Chemical crosslinking soon follow before the coating hardens into a stable layer.

Zinc Plating and Powder Coating Compared

With the above overviews of the zinc plating and powder coating processes in mind, it’s time to take a closer look at the particular advantages and disadvantages of each method relative to one another.


Of the two methods, powder coating tends to be less expensive—at least in terms of material costs. Simply put, the organic materials used in powder coating don’t carry as high a price tag as the zinc used in plating. The process itself is also somewhat simpler, thus helping to keep equipment and maintenance costs down.

If durability and longevity of the finish are of primary importance, zinc plating proves to be the long-term cost-effective solution. This ultimately reduces future costs associated with either re-coating or outright component replacement.

Time of the Process

Zinc plating has a slight advantage over powder coating when it comes to processing time. Both techniques require similar time investments in terms of substrate preparation. Yet once the base metal is ready to go, the zinc plating process can proceed from start to finish in just a few minutes. After the component has been dipped in the zinc bath, it only needs to be rinsed and dried before it is ready to go.

Powder coating, by contrast, does require more of a time investment. Not only does the powder have to apply to the entire surface carefully, but the sheet metal must then be cured. Curing alone tends to require between 10 and 15 minutes. While this may not seem like a huge amount of time, it can significantly increase processing time over the course of a large batch of components.

Service Life and Durability

Neither powder coating nor zinc plating will prove ideal for every application. In protected environments, powder coating can provide protection nearly indefinitely. Yet if powder coating becomes cracked or otherwise damaged, corrosion will quickly set in. Even a small scratch will leave the underlying steel without any protection.

Zinc plating by contrast will continue to provide protection even if the surface becomes scratched or damaged. The nearby zinc will continue performing its role of cathodic protection, attracting corrosive agents and sparing the steel.

Does your application involve steel in high-temperature situations? In such cases, powder coating may deliver more reliable protection. To learn more about what it takes to design, manufacture, and protect high-quality sheet metal products, please contact the industry pros at Staub Manufacturing.

Steel in its various types is a vital component of the United States economy. As of January 2020, domestic steel production was at 1,928,000 tons — making steel one of the most widely consumed domestic manufacturing products. From buildings to medical equipment and vehicles, the world literally runs on steel products. But not all steel materials are made alike.

There are multiple steel types and alloys that each have unique properties — making them each suited to specific production goals. Some steels are sturdy and heavy, while other steels are ductile and versatile.

Frequently, our customers approach us regarding the best type of steel for their application. We put together this quick guide to help you navigate the language of steel. Of course, you may still have questions regarding the application. Feel free to reach out to us with any unique property needs so that we can help you find the right steel and manufacturer for your needs.

Carbon Steel

Technically, carbon steel is a metal alloy that contains both iron and carbon. But in the manufacturing industry, carbon steel is often defined in multiple ways. Both of the following constitutes a “carbon steel” in the metals market.

  • Steel that contains up to 2% carbon
  • Steel that does not contain any standard amounts of elements that would classify it as an “alloy steel” (e.g., cobalt, nickel, tungsten, molybdenum, titanium, zirconium, vanadium, chromium, etc.)

You may also notice the term “carbon steel” applied to steels with less than 0.4% copper or steels that have certain magnesium to copper contents, though those definitions are contested across industries. For the purposes of this, we’re talking about the first two definitions.

There are three ways that carbon steel is classified — low, medium, and high

Low Carbon Steel

Low carbon steel (or “mild carbon steel” or “plain carbon steel”) refers to carbon steels that have up to 0.30% carbon content. This is, by far, the most common type of steel on the metals market. There are a few reasons for this. For starters, low carbon steel is relatively inexpensive. Also, since the carbon content is lower than medium and high steels, low carbon steel is easy to form and is perfect for applications where tensile strength isn’t an immediate issue, such as structural beams.

Another benefit of low carbon steel is that its properties can be improved relatively easily by adding additional elements, such as magnesium. Low carbon steel is also an ideal choice for carburizing, which improves case hardness without impacting ductility or toughness.

What are some common uses for low carbon steel?

  • Structural components
  • Machinery
  • Pipes
  • Domestic appliances
  • Automobile components
  • Surgical instruments
  • Medical equipment
  • Wires
  • Bolts
  • Stampings
  • etc.

Core properties of low carbon steel:

  • Low cost
  • Low hardness
  • Mild strength
  • High machinability
  • Very high toughness
  • High ductility
  • High weldability

Medium Carbon Steel

Medium carbon steel refers to carbon steels that have between 0.31% and 0.60% carbon content and between 0.31% and 1.60% magnesium. One of the biggest benefits of medium carbon steel is its strength. However, that comes with some tradeoffs. Medium carbon steel has low ductility and toughness — making it more difficult to form and weld.

What are some common uses for medium carbon steel?

  • Machinery parts
  • Pressure structures
  • Cranks
  • Gears
  • Railway tracks

Core properties of medium carbon steel:

  • Low hardenability
  • Medium ductility
  • Average toughness
  • Medium strength
  • Medium weldability
  • Average machinability

High Carbon Steel

High carbon steel refers to carbon steels that have between 0.61% and 1.50% carbon content and between 0.31 and 0.90 magnesium. When it comes to hardness and toughness, high carbon steel is the carbon steel of choice. However, this comes at a tradeoff. It’s very difficult to weld, cut, or form high carbon steel.

What are some common uses for high carbon steel?

  • Railways
  • Bars
  • Spring steel
  • Plates
  • etc.

Core properties of high carbon steel:

  • Low hardenability
  • Low ductility
  • Reduced weldability
  • Low machinability
  • High toughness
  • High strength

Stainless Steel

While carbon steel is typically defined by its carbon content, stainless steel is defined by its 10.5% minimum chromium content. Like carbon steel, stainless steel also contains carbon and iron, but the extra chromium is the key that gives it its unique properties. One of the biggest benefits of stainless steel is that it protects the steel for oxidization — which degrades metals over time. Stainless steel is also identified by its sheen, a property provided by the chromium. You will often see stainless steel utilized in cookware, knives, and medical equipment.

Like carbon steel, there are various types of stainless steel, each with a unique market price and properties.

Austenitic Alloys

Stainless steel austenitic alloys are, by far, the most common types of stainless steel metals on the market. They resist oxidation, provide a unique look, and are non-magnetic (though they can become magnetic in certain circumstances).

There are two common austenitic alloy grades:

  • Grade 304
  • Grade 316

Grades of austenitic alloys also include 301, 302, 303, 309, and 321.

Ferritic Alloys

Stainless steel ferritic alloys are another semi-common stainless steel alloy. Unlike austenitic alloys, they are magnetic — lending them to applications where magnetism is necessary. These are typically the cheapest stainless steel alloys due to their relatively low nickel content.

There are two common ferritic alloy grades:

  • Grade 430
  • Grade 434

Martensitic Alloys

Stainless steel martensitic alloys are the least common stainless steel alloy. These alloys have incredible hardiness and toughness, but they have poor oxidation properties, making them only suited for applications that require incredible hardiness.

There is one common martensitic alloy grade:

  • Grade 420

Alloy Steels

The widest and most diverse range of steel alloys is “alloy steels.” These are made by combining carbon steel with various alloying elements to provide unique properties to each steel. There is an incredibly wide range of alloy steels, but some of the most common include:

  • Chromium
  • Cobalt
  • Molybdenum
  • Nickel
  • Tungsten
  • Vanadium

Due to the incredible variety of alloy steels, you can create steels with almost every possible property using alloy elements. That being said, some of these steels are relatively expensive.

Tooling Steels

The final steel group is tooling steels. These are steels used for tooling activities such as drilling. Commonly made up of molybdenum, vanadium, tungsten, and cobalt, tooling steels are heat-resistant, durable, and strong.

There are 6 grades of tool steel:

  • Air-hardening
  • Water-hardening
  • D-type
  • Hot-working
  • Shock-resisting types
  • Oil-hardening

Do You Need Steel?

Staub Manufacturing offers services using most of the steels listed above. If your company needs best-fit steel parts to manufacture high-quality products, contact us. We’re American ISO 9001:2105 certified manufacturers who are ready to help you deliver superior fabricated steel products.

Ensuring the sheet metal fabrications in your supply chain are sourced and manufactured through tight quality controls is crucial for manufacturers in today’s hyper-competitive production ecosystem. According to a Geodis survey, 28% of manufacturers are pressured by global competition, and a further 27% are having trouble adapting to consumer demands.

Consumers crave higher-quality products, and manufacturers demand quality controls that ensure regulatory compliance and consistency. To help combat these needs, the International Organization for Standardization (ISO) utilizes an international standard for quality management systems (QMS) that allows manufacturers and customers to find high-qualified manufacturers that follow best-practice QMS principles.

This standard — ISO 9001:2015 — is awarded to businesses that showcase a commitment to quality control principles and a willingness to iteratively improve their processes, year-over-year, to deliver a superior product. For OEMs and Tier 1 manufacturers looking to source sheet metal products in today’s demanding and increasingly-transparent supply chain, ISO 9001:2015 has become a beacon of hope.

What is ISO 9001:2015?

Established in 1987, ISO 9001 is a certification that acknowledges a company’s adherence to certain quality management system (QMS) standards. The International Organization for Standardization (ISO) — a national standards body comprised of over 160 countries — administers ISO certifications to businesses that emulate best-of-breed practices and the highest quality of management.

5 Reasons You Should Choose an ISO 9001:2015 Certified Sheet Metal Product Supplier

1. Standardized Quality

An integral component of ISO 9001:2015 is standardization. The road to achieving certification can take months — indeed, even years. Every business must prove its ability to produce and provide consistent products and services to its customers. To start, all processes under the ISO framework have to have a well-documented quality management system (QMS). From processes to procedures and work productions, ISO certified manufacturers follow strict quality control procedures that are consistent and standardized.

For the steel sheet consumers, this standardization means that OEMs and T1 manufacturers can expect high-quality products consistently — reducing headaches in the supply chain. You want to work with a manufacturer that can deliver a consistent product that allows you to create your own processes. Any inconsistencies in quality and production can quickly cripple your output and breed agitation between your business and your clients or customers.

2. Overall Reliability

ISO’s highly-structured framework provides built-in processes for data management, strategy execution, and quality control on both broad and granular matters in the process chain. This means manufacturers adhering to ISO frameworks consequently reduce waste and achieve objectives. Through robust and highly-architectured processes, ISO certified manufacturers have a clear pipeline of delivery that involves data analysis from the start and plans for failures.

This ability to adjust processes on the fly gives manufacturers the ability to provide superb reliability. Do you need additional orders placed? Do you have a new revenue stream that requires a significant sheet metal product commitment? ISO certified manufacturers have the processes in place to handle those rapid adjustments.

3. Constant Improvement

ISO certifications aren’t permanent. Not only do you have to identify weaknesses and implement better processes to become ISO certified, but the certification ensures that you have QMS in place to consistently improve upon those processes. We all want to work with supply chain players that are committed to long-term improvements — not just in-the-moment deliverables.

You want a relationship that lasts for years. Establishing solid partnerships can help you predict and react to changes in your industry without worrying about procurement.

4. Better Shipping Logistics

As consumers demand faster shipping, getting materials to your manufacturing plant on time is essential. But not all suppliers use the same shipping and logistics strategies. While many supply chain players are trying to reinvent the wheel and implement faux “Industry 4.0” strategies, ISO 9001:2015 provides frameworks for highly-tested and highly-repeatable processes. This means better shipping procedures backed by technology and smart data analysis.

5. Higher Levels of Credibility and Trust

ISO 9001:2015 is a globally recognized standard of quality for businesses. When you work with an ISO-certified manufacturer, you’re working with a company with the highest level of credibility and trust. For example, Staub would have never been able to maintain ISO certification if it wasn’t absolutely dedicated to creating best-of-breed production, procurement, and shipping. ISO certification should be the first thing you ask for when you’re evaluating a new sheet metal product supplier.

If they have the certification, you know that they’ve (at the very least) created systems to ensure quality. Of course, some ISO certified companies have superior production and material quality than others; the ISO certificate is the handshake that opens the door.

Staub Manufacturing is an ISO 9001:2015 Certified Sheet Metal Product Manufacturer

Do you want to work with a credible manufacturer you can trust to work hard, constantly improve, and provide you best-in-class customer service? Staub Manufacturing is an ISO 9001:2015 certified manufacturer that you can rely on. For us, ISO certification is just the beginning. Correspondingly, we go above-and-beyond our certification requirements, and we’re the hardest working sheet metal fabrications providers in the business. Are you ready to call us your supply chain partner? Contact us today to learn more about how we can help you help your clients.