When you think of manufacturing, what comes to mind? Assembly lines with people robotically performing the same set of tasks repeatedly? That’s certainly one type of manufacturing, but it’s not the only one.
Another common type is fabricating products using specialized machinery. It includes punching and forming dies. We have discussed both of them below for your better understanding.
Forming Dies:
A die is a specialized tool used to cut, shape, or form materials like metal and plastic. It typically consists of the upper die (or punch) and the lower die (or anvil). The upper die has a sharp cutting edge that comes into contact with the material. In contrast, the lower die provides support during the punching process.
Die forms are metal blocks used to shape materials like sheet metal and plastic. A single form suffices in forming a single-layer plastic sheet. Vacuum formation is a simple thermoforming technique that uses identical principles to die forming.
Punching Dies:
Punching is a fabricating process used to create holes or indentations in materials. It’s typically done using a die.
The procedure is similar to cutting, except instead of using a sharp cutting edge, punch dies employ a strong punch that strikes the material. This punch makes a hole in the object, after which it may be molded or formed as desired.
Types of Punches:
There are various types of punches, each with its functionality. Below are a few to accustom yourself with:
- Pilot punches – used to create a pilot hole for the subsequent larger-diameter punch
- Blanking punches – cut out circular or non-circular shapes in materials
- Drawing punches – create cups, tapers, and other complex shapes
- Extrusion punches – used to create long, slender parts such as screws, nails, and needles
- Head type punches – used to create rivet heads.
What Are Punching and Forming Dies Made of?
Forming and punching dies are made of rigid materials, such as carbides or tool steels. It is necessary because the punches must withstand the high pressures involved in stamping without breaking or deforming. In addition, the die must be able to cut through the metal or plastic cleanly and precisely, without leaving any burrs or rough edges.
How Are Punching and Forming Dies Used?
Forming and punching dies are used in various industries, including automotive manufacturing, electronics production, and appliance fabrication. They are also used in stamping operations, such as deep drawing, embossing, flanging, and piercing. In each application, the die shapes the metal or plastic workpiece into the desired final form.
Bottom Line:
Punching and forming dies are an essential part of the fabrication process in various industries. Their design and construction are critical to the success of the project.
When selecting a die supplier, it is essential to choose a company with the experience and expertise to design and build high-quality dies that meet your specific needs. At Cav Tool, we have years of experience in designing and manufacturing punching and forming dies.
We also design custom punches to meet the unique requirements of our customers. Contact us today to learn more about our services or request a quote for your next project in Milwaukee, WI.
A Brief Introduction To Punch Machines In Tooling
In tooling, manufacturers use many different machines to create and form products. Of these machines, one of the most versatile and commonly used is the punch machine.
A punch machine uses a variety of punches to cut or stamp shapes out of metal sheets. While they may seem simple in design, punch machines can be quite complex and come in various sizes and configurations.
Today, Cav Tool experts will discuss punch machines in tooling, their functions, and how they work.
What is a Punch?
A punch is a tool used to create a hole or impression in a workpiece. Punches come in many different shapes and sizes and can be made from carbide, high-speed steel, and cobalt.
The point geometry also defines punches. Point geometry refers to the shape of the point of the punch. The most common punch points are chisel, blunt, and radius.
How Does a Punching Machine Work?
Punching machines work using a die with the same shape as the punch. The die is mounted on a ram, and the punch on a slide.
The ram moves down and punches through the workpiece when the machine is activated. The size of the cut hole depends on the size of the punch and die.
Punching machines can be manual or automatic. Computers control automatic punching machines, and they can produce more complex shapes than their manual counterparts.
The three standard punching machines are hydraulic, pneumatic, and electric punching machines.
What Are Punch Machines Used For?
Punch machines are popular in many different industries for a variety of applications. These industries include automotive, aerospace, electronics, household appliances, furniture, and construction.
Punch machines prove helpful in creating a variety of shapes, including holes, slots, and notches. You can also use them to cut through materials such as metal, plastic, and wood. Riveting, notching, and embossing are other possible applications for punch machines.
What Are the Different Types of Punch Machines?
There are several different types of punch machines available on the market. The type of machine you choose depends on the application you need it for.
Turret Punch Presses: These are the most common type of punch machine. They are very versatile. Metal stamping, forming, and even welding are possible with a turret punch press.
CNC Punching Machines: Although expensive, CNC punch machines offer high precision and repeatability. Aerospace and automotive industries make good use of CNC punching machines.
Pneumatic Punch Machines: Pneumatic punch machines are the most affordable machine. They are best suited for light-duty applications like home workshops.
Hydraulic Punching Machines: These are the most potent type of punch machine and can be used for heavy-duty applications like industrial manufacturing.
Benefits of Using a Punch Machine:
Punch machines offer plenty of benefits over traditional hand-operated tools.
- They are much more precise and can produce consistent results.
- Punch machines can cut through a variety of materials.
- Punch machines can be automated, which means they can work faster and less operator fatigue.
Bottom Line:
Finding high-quality punches for a punching machine can be a challenge, but it’s worth it for the benefits that punch machines offer. With their precision and versatility, punch machines can work for various applications.
Cav Tool, serving Los Angeles, CA, manufactures punches, dies, retainers, etc. We also offer custom punch manufacturing.
There’s something about workshops that feels right. Maybe it’s the sawdust in the air or the satisfaction of hammering a nail into wood. Whatever it is, there’s no denying the appeal of working with your hands. And when it comes to workshop boons, fabricating your fixtures is one of the best.
This blog post will uncover the advantages of fabricating your fixtures for a workshop. We’ll explore how it can save you time and money while also satisfying you with making your tools.
Fixtures – The Basics
A fixture is a machine that holds and positions a workpiece during an inspection or for a manufacturing process. The fixture does not guide the tool.
In construction, a fixture is defined as “an article attached to something in a permanent manner.” It’s also “a device that supports and orients a workpiece during an inspection or manufacturing process.”
For example, a drill press is a type of fixture. A drill bit is secured in the drill press’s chuck. The workpiece is then placed on the table beneath the drill bit. The table is adjustable, so the workpiece can be positioned in different ways to create the desired hole.
You can either weld, bolt, or clamp the fixture to the work table. The type of attachment will depend on what you’re comfortable with and the weight/size of the workpiece.
How Does Manufacturing Your Fixtures Save You Money?
The main selling point for fabricating your fixtures is that it saves you money. When you’re just starting, every penny counts, and you don’t want to be blowing your budget on unnecessary expenses.
If you’re not careful, the costs can quickly add up when buying ready-made fixtures from the store.
Here are a few more advantages of making your fixtures:
Maximized Efficiency:
A great perk of making your fixtures is that they can help maximize your efficiency in the workshop. By taking the time to design and build a fixture that’s just right for you, you’ll be able to work faster and easier without sacrificing quality. Additionally, having everything you need close at hand will save you time and energy in the long run.
Tailored Functionality:
In addition to being more efficient, fabricating your fixtures allows you to tailor their functionality specifically for the tasks you do most often. Maybe you need an adjustable fixture to accommodate different-sized parts or one that tilts and swivels to get just the right angle. Whatever your needs, customizing your fixtures can make your work go more smoothly.
Improved Quality:
Finally, when you fabricate your fixtures, you have complete control over their construction and how they’re put together. That means you can ensure that they’re built with high-quality materials that stand up to heavy use. With store-bought fixtures, on the other hand, you might have to settle for lower-quality materials to stay within your budget.
Conclusion:
At CavTool, in Atlanta, GA, we specialize in manufacturing premium quality tools for your workshop so you can get the job done right. Whether you’re looking for jig grinding, CNC machining, or surface grinding, we have you covered.
Contact us today to learn more about our products and how we can help you take your workshop to the next level!
3 Types Of Lathe Machines For Precise Tooling
Lathe machines are incredibly versatile pieces of equipment. They can be used for various applications, from small-scale hobby projects to large-scale industrial manufacturing. Craftsmen have used them for centuries to create intricate designs and shapes in wood, metal, and other materials.
Today’s lathes are computer-controlled and can be used to create complex 3D shapes and more traditional turned objects. While they may seem intimidating at first, anyone can use a lathe machine to produce beautiful pieces with a bit of practice. If you’re interested in learning more about lathe machines used for precise tooling, this helpful post by Cav Tool is a great resource.
What is a Precision Lathe?
A precision lathe is a machine that turns cylindrical objects with extreme accuracy. The tooling (or cutting tools) used on a precision lathe must be very sharp and of the highest quality to achieve the desired results.
Precision lathes are used in various industries, from medical device manufacturing to aerospace engineering. They are an essential piece of equipment in many high-precision manufacturing applications.
What are the different types of Precision Lathes?
There are several different precision lathes, each with unique features and benefits. Let’s quickly go over the most popular types:
Benchtop Lathes:
Benchtop lathes are small and compact, making them perfect for use in smaller shops or home garages. They are typically less expensive than larger lathes and can be easily moved around. With a benchtop lathe, you can perform many tasks as with a larger lathe, such as turning, facing, and drilling.
The name is derived from the fact that these lathes are typically small enough to be placed on a workbench. The machine’s components are the same as any other lathe, including the headstock, tailstock, carriage, and bed. The main difference is in size.
Engine Lathes:
Engine lathes are the most common type of lathe. They are larger than benchtop lathes and have more powerful motors, making them ideal for heavy-duty tasks. The applications that can be performed with an engine lathe are endless, including threading, boring, and turning large pieces of metal.
Although it has many characteristics of a regular lathe, it is built to be more robust. The headstock is more oversized and durable, with a mechanism for adjusting the lathe spindle speeds. The headstock spindle may be powered by a lathe shaft or an individual motor through belts.
Capstan Lathe and Turret Lathe:
These two types are variations of the engine lathe designed for mass production. The capstan lathe has several spindles on its turret, each of which can be fitted with a tool. It allows the operator to work on multiple pieces simultaneously. The turret lathe is similar, but it has a stationary workpiece and a rotating turret.
These machines require more floor space and limited operating skills since they are semi-automatic. Instead of a tailstock, these machines have hexagonal turret heads. It also has three tool stations. The significant benefit is that the time required to complete different tasks and components may be significantly reduced. Moreover, without changing the tool, the quantity and quality are excellent.
Ending Note:
So, whether it is button die making, die threads, shafts, aerospace parts, or other objects, a lathe machine is the best option to create them precisely. There are various types of lath machines available in the market. And each one is designed for a specific purpose.
If you’re in the market for a precision tooling system that can handle your most demanding projects, we recommend contacting Cav Tool in Columbus, OH, to discuss your needs.
We offer free custom quotes so you can get an idea of how much your project will cost before getting started.
Reverse Engineering – In’s And Out’s
Do you ever watch the crime shows on TV where the detectives figure out who did it by piecing together all the evidence? Well, that’s essentially what reverse engineering is – taking something apart to figure out how it works. It can be used to understand how your car’s engine works to hacking into a rival company’s computer system.
Cav Tool will unfold the basics of reverse engineering in a layman’s language. It will also acquaint you with the tools you would require for this trade.
Understanding Reverse Engineering
Also known as back engineering, it is a method of extracting design information from software, machines, aircraft, architectural structures, and other goods. Reverse engineering is the process of deconstructing parts from more oversized items to rebuild them. You may find out how a component was created so that you can make it again by utilizing the reverse engineering procedure. When a company cannot obtain a replacement part from its original equipment (OEM) manufacturer, it may resort to this method.
Corporations may use reverse engineering to recover data on discontinued goods to bring them back. For example, a small firm operating for more than 40 years may have created numerous items before the advent of computer-aided design and digital file storage. As a result, these earlier items may be based on long-forgotten paper blueprints. Companies can recover their lost designs and establish product legacies by reverse engineering.
The Process
To reverse engineer a physical product, an organization will generally gain access to an actual product example and deconstruct it to study its internal mechanisms. Engineers can then reveal information regarding the product’s original design and construction. Today, there are various software tools and methods used for reverse engineering, which can be divided into two categories: destructive and nondestructive.
Destructive methods involve a teardown of the product open to examining its inner workings.
Nondestructive methods use various scanning & X-ray imaging techniques to create a digital replica of the product without damaging it.
The Benefits:
There are many benefits to reverse engineering, including:
- Failure Analysis: When a product fails, engineers can use reverse engineering to determine the cause of the failure and develop a fix.
- Design Improvement: By understanding how a product works, engineers can often improve its design.
- Patent Violations: If a company suspects that another company has violated its patent, it can use reverse engineering to prove it.
- Competition Analysis: By understanding how a product is designed, competitors can try to create similar products that are cheaper or better.
- Education: Reverse engineering can be a valuable learning tool for students who want to learn how products work.
Useful Tools
Several tools can be used for reverse engineering. Some of the most popular ones are IDA Pro, Hex-Ray, and OllyDbg. These tools allow you to disassemble code, view data structures, and debug programs. They can be used to analyze both executable files and raw data.
The features of these debuggers vary, but most of them include various debugging features such as breakpoints, step-by-step execution, and variable inspection. They also allow you to view the assembly code for a program. It can be helpful in understanding how a program works and locating vulnerabilities.
Ending Note:
If you’re looking to get started in reverse engineering or are curious about what it’s all about, Cav Tool can help. We’re located in Chicago, IL, and have the experience and expertise to help you out with your next project.
As a business owner or entrepreneur in Grand Rapids, MI, you’re always looking for ways to add value to your products or services. With this in mind, Cav Tool looks at one such service: Fine Article Inspection.
We will explore what it is, how it works, and whether or not it’s something that could benefit your business. Thanks for reading!
What is Fine Article Inspection?
Fine Article Inspection, also known as FAI, is a quality control process used to ensure that parts conform to the design requirements. It includes checking for proper dimensions, surface finish, and material composition. FAI can be performed on new or modified tooling, processes, or even when changing the location of manufacture.
Why Is Fine Article Inspection Important?
FAI is important because it helps to ensure that parts meet the design requirements. It can help avoid problems down the road, such as improper fit or function of the parts. Additionally, FAI can also help identify potential manufacturing issues that could impact the quality of the parts.
FAI is a critical step in ensuring that the manufactured product meets the customer’s requirements. Manufacturers can avoid costly rework and scrap by performing FAI and ensuring that their products meet the highest quality standards.
How Is Fine Article Inspection Performed?
FAI is typically performed using CNC machining, die details, and other measuring devices. The process can be performed manually or automatically. When performing FAI manually, the inspector will use various measuring devices to check the part’s dimensions.
Automated FAI can be performed using ball-lock retainers, shoulder screws, or cut-offs. These FAI devices measure the part’s dimensions and compare them to the design requirements. Automated FAI is used to check for surface finish, fixtures, geometry, and other details.
Statistical process control (SPC):
Statistical process control (SPC) is defined as statistical techniques to control a process or production method. SPC can be used for anything from manufacturing to service-based processes. For example, you could use SPC to track the number of customer complaints you receive in a day.
You could then use that information to make changes to your process to reduce the number of complaints. SPC is a very powerful tool that can help you improve your process and produce a better product.
What Are The Benefits Of Fine Article Inspection?
The benefits of FAI include:
- Ensuring that parts meet design requirements.
- Identifying potential manufacturing issues.
- It helps to avoid problems with improper fit or function.
- It also helps to improve the parts’ overall quality by catching potential problems early on.
Final Verdict:
So, does FAI add value to the end product? The answer is yes! FAI is a necessary step in the production process that can help ensure that your product meets all the required quality standards.
Without FAI, you would not be able to identify and fix defects in your product before it is shipped to the customer. If you’re looking for a quality inspection to ensure your parts are defect-free, look no further than our team at Cav Tool. We offer free quotes so you can see how much value we can add to your end product – contact us today to get started!
Sheet metal punching is a process you can use to create holes in metal sheets. It is often used in manufacturing and engineering applications. However, if not done correctly, the sheet metal can become deformed.
Cav tool will show you the ropes for sheet metal punching in this blog post.
What Equipment Should I Use?
There are different types of equipment for sheet metal punching available. Let’s first talk about the CNC punch press, a machine that uses punches and dies to cut holes in sheet metal.
You can use the punch press for various applications, such as creating flanges, notches, or other shapes in sheet metal.
Another standard tool is the CNC press brake, which uses a multi-universal top punch and a V-shaped bottom die for sheet bending. This type of equipment can process workpieces of a length of over 2 meters, marking them as versatile and powerful.
Common Issues in the Bending Process
Bending is a process that uses machines to deform the workpiece. The die provides the force required to bend the sheet metal while the punch presses the sheet metal into the V-shape of the die.
The main issue during this process is deformation with abrasion marks. Most factories resort to a protective film stuck on the plate surface to prevent this from happening.
However, if the bending force is large, it will cause the film to rupture, and the marks will appear on the sheet metal surface. Therefore, there will be a need for alternative solutions to prevent deformation.
Effective Solutions
The following are a few simple ways for preventing abrasion:
Polyurethane membrane:
Place this mouthful of a mat on the V-shaped die, where it will cushion between the sheet and mold, effectively blocking direct contact. The die will not be able to scratch the sheet metal.
Design an anti-indentation mold:
You can find many forms of anti-scratch molds, and here we’ll address 3:
- Hard Rubber V-Shaped Mold: The rubber is relatively low on hardness, which will generate minor abrasion to the material.
- Flip Bending V Die: The main motion uses rotary forming and turning. The core part is a turning bending block and turning pivot. The CNC press brake punches during processing and moves downward towards the workpiece, bending due to the rotating bending block. The workpiece surface rarely slips, ruling out abrasion.
- Replaceable Rubber Strip Die: Open the gap on the traditional V-shaped die and mount a rubber strip on each side. These strips are flexible and softer than the workpiece material, so they will help deflect any abrasions when the die comes in contact with the workpiece.
Conclusion
Use our brief guide to avoid deformation during sheet metal punching. If you have any questions or need reliable tools in Detroit, MI, don’t hesitate to reach out to Cav tool. We’re always happy to help.
Creating an engineering drawing is a specialized skill that takes years of practice to perfect.
In this post, Cav Tool will walk you through the process of designing an engineering drawing. So whether you’re a budding engineer looking to improve your engineering drawing skills, read on for a beginner’s guide to creating an engineering drawing!
What Is Engineering Drawing?
Before we jump in, let’s first take a moment to define what engineering drawing is. In short, engineering drawing (or drafting) is the process of creating technical drawings or plans that show how something is supposed to be built.
This can include everything from detailed schematics and diagrams to assembly instructions and parts lists. Essentially, engineering drawing allows you to communicate your designs clearly and concisely so that others can replicate them.
Why Use Engineering Drawings?
Can we do without them? Let’s take a look at some of the reasons why engineering drawings may be necessary:
- To capture the design intent of a product or system
- To communicate that design to others (e.g., manufacturers, suppliers, etc.)
- To create a record of the plan for future reference
- To verify that the production version of a design meets the original intent
As you can see, there are quite a few reasons why you might want or need to use engineering drawings. In some cases, it’s simply not possible to create a product without them.
How Do I Prepare One?
There are two standard methods to generate an engineering drawing: hand-drawing and computer-aided design (CAD).
Hand-Drawing:
Suitable for university settings, this method uses pencil, paper, and a set of drafting tools. Drawing by hand promotes creativity and develops spatial imagination and awareness. However, it can be time-consuming and require a higher level of skill.
CAD:
More appropriate for the contemporary manufacturing industry, this method employs CNC machining to create the product. You input a design into the computer, which transfers it to the machine. The advantage of using CAD is that it’s more efficient and accurate than hand-drawing and retains the ability to be modified.
The Basic Components of Engineering Drawings
What goes into an engineering drawing? We’ll go over six main elements:
- Title Block: provides information on the picture itself, who created it and when, as well as its revision history
- Coordinates: serve as points of reference and are typically labeled in orthographic views
- Lines: come in different types and serve different purposes
- Dimensions: numerical values that indicate size, shape, and other physical properties of a feature on the drawing
- Views: in types such as isometric and orthographic, these express the external or internal three-dimensional appearance of an object
- Assembly Drawings: the goal of these is to help assemblers build the object represented in the engineering drawing, not to contain all the information that is in the engineering drawing
Conclusion
That was our brief but enlightening tour of the engineering drawing! We hope you now have a better understanding of how to read and design your own. And remember, for all your engineering tool needs, Cav Tool is in Atlanta, GA, to help.
The success of a metal parts fabrication workshop lies in its ability to cast high tolerance products fit for use in other industries. Fortunately, CAV Tool has all punches, dies, retainers, etc., covered with a promise to precision tooling in parts fabrication.
In the case of high-quality metal parts that can’t be machine-tooled yet, the molds need to be sturdy enough to withstand extreme heat while delivering perfect dimensions on the cast required. Major reasons to mold specific parts might be customer needs for mechanisms or gapping legacies. Either way, where tools fail, the cast prevails. Here are a few types of metal casts.
1. Single-Use Mold Casts
It is also known as expendable mold casting & utilizes materials like sand, polymeric clay, ceramics, & plasters. The mold is single-use because it is usually broken to get the precise cast out. Metal parts with geometric reinforcements are usually cast this way.
2. Permanent Mold Casts
Engine parts fabrication & heavy machine components are usually cast this way for mainstream uses. And because this method reuses the mold multiple times, only basic machine casts can be fabricated.
3. Composite Casting
The method incorporates both single & multi-use casting elements to produce reinforced metal composite casts. Fibers & additives are introduced into the molten metal and then cast.
Casting Techniques
Sand Casts
In this technique, a mix of sand, clay, & ceramic forms the hardened mold used to create cross-sectional metal casts with hollow features. The casts are designed for assembly rather than a single part.
Die-Cast
Molten metal is introduced into a high-pressure mold and then left to harden. This method produces tools & dies with high-tolerance ratings.
Low-Pressure Cast
The molten metal is injected into molds from a low-pressure furnace. The difference in pressures causes the molten metal to rise & occupy molds.
Gravity Die
Here, the molten metal is introduced into a mold using mere gravity. It is simply poured in & popular for permanent molds.
Lost foam
First, complex design parts are sculpted in wax or foam and then covered in sand or ceramics. The molten metal is poured/injected/filled into the mold. The wax, resin, or foam structure melts away, leaving an accurate metal cast.
Vacuumed Die
Here, the air is removed from isolates molds, and molten metal is injected inside. This method is much effective in helping gases escape without becoming a hazard.
Squeezed Die
This method combines forging & casting to produce high-strength metal parts with minimal internal defects. Molten metal is injected into a mold and forged via machining to achieve the shape of the intended cast.
CAV Tools is one of the most reliable machinists in all Kansas City, KS, for precision tooling, cutting, & fabricating metal parts for your business or DIY project needs. Our high tolerance metal worked offerings have benefited many automated companies that rely on our dies & casts to deliver quality further.
If you have a metalwork project that involves conceptual designs, you can trust us to create a prototype of your desired metal part. High-tolerance finishes are guaranteed using only the latest in casting techniques & materials on our premises!
Check out products & get in touch with us for free quotes today!
A die-cutting machine is a highly versatile tool, allowing you to work with a wide variety of materials. What’s more, all these industries can benefit from a die-cutting setup. Cav Tool gives you an overview of different industry sectors, particularly the SMEs, that can benefit from a die-cutting setup.
Engraving & Decoration
One of the most common uses for a die-cutting machine is engraving and decoration. For this application, several companies have found that using blank wooden plaques as a substrate allows them to offer customers quality products at affordable prices. Furthermore, one could have their company logo or even simple words engraved on the face of the product, which would be visible after it has been assembled into furniture or cabinets.
Upholstery
Upholstery is made easy by adding a wood veneer to the equation. Using a die-cutting machine can easily cut out patterns that would often be difficult to make by hand. Furthermore, this allows upholsterers to produce resources for their customers at a much swifter pace without sacrificing quality or detail.
Cabinetry
As mentioned before, the main benefit of a die-cutting machine is its ability to cut out veneers from wood sheets easily. Thus, if you craft cabinets from scratch, it would be ideal for you to use a custom-made template to ensure that all of their pieces fit together perfectly and look elegant.
Musical Instruments
Musical instrument makers have been using die-cutting machines for decades. These machines work very similarly to a guillotine—only smaller and less hefty. When building instruments from scratch, it would be vital for them to acquire templates used before to ensure their products were of the highest quality possible.
Furthermore, these templates will come equipped with grooves and holes where string sections need to be placed and strung to build an instrument. This ensures an easy and time-effective workflow when crafting musical instruments using custom-made woodwork templates using a die-cutting machine.
Sculpture
A considerable amount of time is required to create a truly unique and custom sculpture. From creating a design on paper to sculpting it out of clay or wax, there is no easy way around this process. Many artisans have taken their initial drawings and made them into steel molds that allow them to easily cast pieces of metal into their desired shapes without too much labor involved. This can be done using die-cutting machines, making it one of the essential tools for any artist who wants his final product to look like his original vision.
At Cav Tool, serving Detroit, MI, we pride ourselves on being a provider of the leading die-cutting machines in the market. Our equipment is designed to be easy to use while providing outstanding results. Get a quote now!
Connect with us
- September 2022
- August 2022
- July 2022
- June 2022
- May 2022
- April 2022
- March 2022
- February 2022
- January 2022
- December 2021
- November 2021
- October 2021
- September 2021
- August 2021
- July 2021
- June 2021
- May 2021
- April 2021
- March 2021
- February 2021
- January 2021
- December 2020
- November 2020
- October 2020
- September 2020
- August 2020
Archives
Categories
Your One-Stop Manufacturing Solution For Custom & High-Quality Close Tolerance Products
Follow Us:
Quick Links
| Hours | |
|---|---|
| Monday | 7:00AM - 4:30PM |
| Tuesday | 7:00AM - 4:30PM |
| Wednesday | 7:00AM - 4:30PM |
| Thursday | 7:00AM - 4:30PM |
| Friday | 7:00AM - 4:30PM |
| Saturday | 7:00AM - 12:00PM |
| Sunday | Closed |