South-Korea (한국어)
South-Korea (한국어)

Tooling comes in many shapes and sizes. Whether you need a jig, fixture, or end-of-arm tool, you simply want a tool that gets the job done quickly and efficiently. No business can afford to get bogged down on tooling design and sourcing, so here’s how you can use additive manufacturing to your advantage – to make the tool you need fast and get back to value-added work. 

Tooling Challenges 

Traditional tooling production comes with several challenges: 

  • Expensive – One-off tools can quickly become expensive to design and manufacture, especially if they are somewhat complex in shape, design, or function. 
  • Slow – Whether making the tool in-house or outsourcing to a job shop, lead time can often hold up production. 
  • Design constraints - There are physical limitations on the complexity of the parts that you can machine, limiting your ability to optimize for the task or the operator using it. 
  • Ever-growing inventory – When jigs and fixtures are only used sporadically, it can be cumbersome to store and inventory each one.  
  • Lack of skilled workers – It’s becoming harder and harder to find workers skilled in traditional tooling methods like CNC milling. Their time is better devoted to value-added production, if possible. 

Let’s examine each challenge in more detail, including how additive manufacturing can solve it (with real-world examples).  

Make Tooling Fixtures Faster and Cheaper With Less Labor 

Find out how to realize a significant reduction in time and cost by making your custom tools via additive manufacturing. 

Challenge: High Costs of Traditional Tooling 

Some tooling applications can be easily constructed with off-the-shelf components. But as the complexity of the design increases, so too does the cost. Machining complex fixtures such as soft jaws out of metal pieces can be time consuming, and using a CNC mill incurs a hefty opportunity cost. 

Solution: Reasonable Cost per Part

Additive manufacturing allows you to create the exact fixture you need at a reasonable cost, because it isn’t limited by the physical and geometric constraints of traditional machining. You can create complex shapes on a 3D printer due to the additive, layer-by-layer nature of the process. This means you can optimize fixture design to best fit the task, the operator, or both.  

Take advantage of additive manufacturing economics which favor low volume.  

Example: Fixtures for injection molding

Thogus Products found that they could save about  80% in both cost and lead time when printing their own fixtures, compared to machining them traditionally. This helps Thogus offer injection molding services for less, which is critical, since “low price wins” in their industry. 

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Challenge: Long Lead Times and Delays 

Usually going hand-in-hand with high cost, fabricating tooling using conventional means often causes long lead times.  

Solution: Print EOATs In-House

Take end-of-arm tooling (EOAT), for example. Certain common EOATs are easily accessible off the shelf. But in many cases, you might prefer a custom tool that is designed for your particular application or need. You could outsource it to a job shop, but the lead time could be weeks, or longer. Alternatively, you can 3D print it and it will be ready for you in the morning! 

Challenge: Design Limitations in Traditional Methods 

Sometimes overlooked, another big challenge with traditional manufacturing is the freedom to design and create a tool that’s truly perfect for the job. The traditional method might involve making a tool that’s easy to machine so that it’s “good enough,” for the sake of time, cost, or both. Unfortunately, good enough doesn’t mean it’s ergonomic, lightweight, or optimal.

Solution: Design Freedom with Additive

Additive manufacturing takes the completely opposite approach. You can design and print your jigs with custom geometry to perfectly fit your application. And in many cases, you’ll have the tool in hand faster and for less. Once the guide rails of designing for manufacturability are off, you can really focus on what’s best for your application. 

 

Example: Jigs for military contract manufacturer 

Liberty Electronics, for example, favors printing custom ergonomic and lightweight jigs to reduce the likelihood of employee injury. Aside from the obvious human benefit, this means higher productivity and employee retention. In particular, 3D printed tooling provided Liberty Electronics with: 

  • ~65% reduction in process time per task
  • 300% increase in productivity  
  • ~85% cost savings vs. outsourcing

Challenge: Inventory Management (e.g., Medical Devices) 


Physical storage space and its cost, along with end-of-life disposal, are often areas of concern with traditional jigs and fixtures.

Solution: Digital Inventory

With 3D printed parts, you can store old tools on digital libraries. Store the source files instead of renting or maintaining storage spaces for tons of equipment.

Example: Medical device gauges, jigs, and fixtures

Aside from the previous benefits of 3D printed tooling (lower cost, design freedom), Medtronic found it beneficial to store digital versions of these tools, alleviating the costs associated with physical storage. 

Challenge: Lack of Skilled Workers 

Attracting and keeping workers is an ongoing problem in manufacturing. Individuals skilled in disciplines like CNC machining are becoming scarcer while the demand for their services only increases. 

Solution: Easier Learning Curve with AM 

Additive manufacturing offers an efficient alternative. The effort to learn and operate 3D printers, particularly FDM systems, is minimal compared to the skill requirements for machinists and CNC operators. Additionally, the printer doesn’t need oversight during the print operation.  

How Additive Manufacturing Addresses These Challenges 

Additive manufacturing changes the game when it comes to production aids and tooling, with the following key benefits: 

  • Cost efficiency 
  • Shorter lead times and fast iteration cycles 
  • Design freedom 
  • Lower barrier of entry 

Whether you’re trying to create the right jig, fixture, EOAT, investment casting master pattern, or other production aid, consider how you can leverage 3D printing to make it better, cheaper, and faster. 

Want to learn more? Download our white paper to find out how to realize a significant reduction in time and cost by making your custom tools via additive manufacturing. 

Download the free white paper