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3D Printed Production Tooling

Production Tooling is a practical choice when you need the right balance of performance, finish, and cost for functional parts.

Practical Production Tooling Without the Traditional Cost

Production tooling does not always need to mean long lead times, high upfront costs, or committing thousands of pounds before a single usable part exists. At Mitchell & Son Additive Manufacturing, production tooling is about solving real problems in a practical, cost-effective way using modern manufacturing methods that make sense for today’s businesses.

Traditional tooling methods such as injection moulding often require expensive tooling before production even begins. That approach works well at very high volumes, but for low-to-medium production runs, replacement parts, discontinued components, or evolving designs, it can be unnecessarily restrictive. This is where additive manufacturing becomes a powerful alternative.

We produce production-ready tooling using durable engineering plastics that are suitable for repeated use, mechanical load, and real-world handling. Jigs, fixtures, guides, clips, housings, brackets, and functional tooling components can be designed, printed, tested, and refined quickly without locking you into a final design too early.

A key advantage is flexibility. If a part needs adjusting after testing, changes can be made directly in CAD and a revised version produced without starting again from scratch. This allows tooling to evolve alongside your product or process rather than holding it back.

Material selection is always driven by application. ABS, PETG, ASA and other engineering materials are chosen based on strength, wear resistance, temperature exposure, and environmental conditions. Where UV exposure or outdoor use is a concern, more stable materials are specified to ensure longevity and reliability.

Strength is also engineered into the part itself. Infill levels, wall thickness, and orientation are carefully considered depending on how the tooling will be used. For production tooling that must withstand repeated stress or movement, parts are printed solid or reinforced where necessary to deliver maximum durability.

This approach enables manufacturers, engineers, restorers, and maintenance teams to access tooling solutions that are fit for purpose, fast to produce, and economically viable. Instead of compromising due to cost or availability, you gain tooling that works exactly as required.

Production tooling should support your workflow, not slow it down. That is precisely the role our additive manufacturing solutions are designed to fulfil.

Cost-Effective Tooling Solutions
Production tooling does not need to involve high upfront investment. Additive manufacturing allows functional tooling to be produced at a fraction of the cost of traditional methods, particularly for low-volume or specialist applications.
Designed for Function, Not Assumptions
Every tool is designed around how it will actually be used. Strength, durability, and accuracy are built into the design rather than assumed.

From CAD Design to Functional Tooling

Every effective piece of production tooling starts with a clear understanding of how it will be used. At Mitchell & Son Additive Manufacturing, tooling projects begin with careful consultation to ensure the final component performs correctly in its working environment.

Where an existing part is unavailable, broken, or obsolete, we can reverse-engineer from a physical sample. Using CAD, the component is accurately modelled, refined, and adapted where necessary to improve durability or usability. This allows tooling to be recreated even when original drawings or supplier data no longer exist.

For new tooling designs, CAD modelling ensures precision from the outset. Dimensions, tolerances, and functional features are built into the model to match the real-world requirements of the task. This removes guesswork and ensures the printed tooling integrates seamlessly into existing processes.

Once the design is finalised, material selection and print parameters are chosen based on the tooling’s function. High-stress applications may require solid infill and thicker walls, while alignment jigs or assembly guides may prioritise accuracy and surface finish.

Unlike traditional tooling routes, there is no need to commit to large batch runs upfront. Tooling can be produced in small quantities, tested on the shop floor, and refined if required. This iterative approach reduces risk and ensures the tooling performs exactly as intended before wider deployment.

Post-processing options are available where required. Parts can be sanded, primed, reinforced, or coated to improve strength, surface finish, or resistance to wear. These additional steps are applied only when they add genuine value to the tooling’s performance.

The result is tooling that is not theoretical or over-engineered, but practical, robust, and tailored to the task at hand. Whether the requirement is a single specialist tool or a small production run, the focus remains on function, reliability, and value.

Rapid Turnaround Times
Tooling can be designed, produced, and deployed quickly, reducing downtime and keeping projects moving without long supplier delays.
Engineering-Grade Materials
Durable plastics such as ABS and PETG are selected based on performance requirements, ensuring tools withstand real-world use.

Bridging the Gap Between Prototyping and Full Production

Production tooling often sits in the gap between early prototypes and full-scale manufacturing. This is where many projects stall due to cost, lead time, or uncertainty. Additive manufacturing closes that gap.

With 3D-printed production tooling, businesses can move forward without committing to expensive moulds or fixed tooling too early. This is particularly valuable where designs are still evolving or where production volumes do not justify traditional manufacturing methods.

Additive tooling allows manufacturers to validate processes, train staff, and refine workflows using real, functional tools. This reduces errors, improves consistency, and shortens the overall development cycle.

In many cases, printed tooling remains in active use long-term. For low-volume or specialist applications, additive tooling can be the final solution rather than a temporary step. This delivers significant cost savings while maintaining reliability.

Because tooling can be produced on demand, downtime is reduced. If a tool breaks or wears out, replacements can be manufactured quickly without relying on overseas suppliers or extended lead times.

This approach is especially effective for maintenance departments, heritage restorations, custom machinery, and specialist manufacturing environments where standard tooling is no longer available.

By focusing on function rather than tradition, production tooling becomes more accessible, adaptable, and efficient. That is the advantage of modern additive manufacturing.

Flexible Design Iteration
Designs can be refined easily as requirements evolve, without restarting the tooling process or incurring excessive cost.
Ideal for Low-Volume Production
Additive tooling is perfectly suited to short runs, specialist components, and discontinued parts where traditional tooling is impractical.

Reliable Tooling Built for Real-World Use

Production tooling must work reliably under real conditions. It needs to withstand repeated handling, mechanical stress, and environmental exposure without failure. That expectation underpins every tooling project we undertake.

We do not treat production tooling as display pieces or theoretical concepts. Each component is designed with its actual workload in mind, ensuring the final result is both practical and durable.

Material behaviour, layer orientation, and structural reinforcement are all considered during the design and print stages. This ensures tooling performs consistently, whether it is used daily or occasionally.

By combining hands-on experience with additive manufacturing expertise, we provide tooling solutions that solve problems rather than introduce new ones. The objective is always to deliver tools that integrate seamlessly into your operation and perform reliably over time.

Production tooling should be an asset, not a constraint. That is the standard we work to.

Reduced Risk Before Full Production
Tooling can be tested and validated before committing to mass production, reducing errors and costly redesigns.
Practical, Reliable Results
The focus is always on producing tooling that works reliably in real environments, not just in theory.

FAQs

Is Ptooling suitable for outdoor use?

It depends on UV exposure and heat. Tell us the environment and we’ll advise the best material.

Can you print Ptooling for functional parts?

Yes. If you share the part purpose and any load/heat details, we’ll confirm the best settings and material choice.