Critical parts support for Defence

Works like magic, must be Titomic

Our advanced cold spray and high-performance titanium additive manufacturing solutions deliver cost-effective, scalable solutions for critical military applications in the Defence sector.

Technology that enhances your mission readiness like never before.

From the rapid creation of lightweight, durable titanium parts to in-field repairs, Titomic’s expertise in high-performance structures, corrosion and wear remediation, and functional coatings, enhances mission readiness and capability for land, sea, air, and space operations.

Applications that unlock limitless possibilities for Defence

Faster output

Specialising in the rapid additive manufacturing of high-performance, multi-metal components such as barrels, ballistics shielding, casings, and armour systems.

Less waste

Performing secondary manufacturing operations such as adding solid metal features or thick coatings to existing parts such as flanges, ribs, and rings.

Scalable systems
Overcoming long lead times with the in-field repair of vehicle assets such as wheels, rotors, shafts, bearing housings, and other critical components.
Any size

Coating and repair technologies that restore geometries and overcome corrosion and wear for large scale equipment and vehicles in demanding environments.

Cost competitive
Functional coatings produced for direct application to existing parts used in electrical conductivity, thermal management systems and corrosion resistance.
Maximum uptime

The ability to cost-effectively repair a wide range of parts in-situ, reducing maintenance downtime and the need to disassemble systems or parts.

Prepare to be wowed

Get in touch with the Titomic team for a free, no-obligation consultation today.

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How cold spray works

The diagram below gives you a quick tour of our innovative, patented Titomic Kinetic Fusion® cold spray technology. A remarkably high-speed, no-melt metal deposition method, it’s rapidly making traditional coating, manufacturing and metal part repair processes a thing of the past.

1Metal particles are injected into a gas jetstream.
2The particles accelerate at supersonic speeds.
3The particles exit the spray nozzle.
4The particles collide with the surface and deform, sticking to the surface and to each other.
5The particles build up, developing into near-net-shape metal parts.

Deep dive into what’s possible

Discover how our advanced cold spray and additive manufacturing technologies are changing the world of industry.

Titanium density that exceeds cast metal

Ideally suited to Defence sector requirements, Titomic’s manufacturing can achieve extremely high densities, up to 99.9% for pure Titanium parts, exceeding the density of cast metal parts. Titomic Kinetic Fusion® is also capable of creating parts that meet or exceed the strength of cast or forged parts, depending on the application.

Harnessing multi-metal strength in a single part

Titomic Kinetic Fusion® is the world’s only technology capable of building seamless, one-piece structure parts from multiple metals. For example, titanium, copper, and high-carbon or alloy steels can be integrated into a single part, leveraging the strengths of each simultaneously.

Field-ready system for demanding environments

The Titomic D523 Cold Spray System is designed specifically for in-field repairs in the toughest, most demanding environments. Whether it’s fixing battle damage on military vehicles, repairing leaks in field conditions, or maintaining equipment in remote locations, the D523 is a versatile and powerful solution

 

  • Designed for a wide range of repairs and coatings, including corrosion, holes, cracks, and high-temperature applications. Powders include aluminium, aluminium oxide, zinc, and nickel.
  • Securely store powders, parts and accessories for field transport.
  • Everything required for seamless operation and maintenance.

Case studies

Triton Systems boosts defence manufacturing capability with Titomic Kinetic Fusion®

In the ever-evolving landscape of manufacturing, US-based Triton Systems, Inc. is pioneering…

Answers to Frequently Asked Questions

With hundreds of useful, faster, cost-effective applications, you’re sure to have a query or two about what’s possible. If you can’t find the answer here, please don’t hesitate to contact us.

What’s the cost difference between Titomic Kinetic Fusion and traditional manufacturing?

TKF costs significantly less than traditional manufacturing methods for the following reasons:

  • It doesn’t need large-scale tooling (such as vacuum moulds) to produce parts. A simpler setup means reduced costs.
  • It turns metal powder to part in just hours, by depositing the powder at supersonic speed to rapidly build up parts layer by layer – so there’s no need for casting or forging. Plus, the part you need is the part you make, saving time and materials.
  • It keeps material costs down. For example, when we manufactured a 1.2m titanium ring, the ‘as built’ weight was 60kg while the final part weighed 56kg – representing a ‘buy to fly’ ratio of 1.08 with material costs of only A$3,000.
How does the cost Titomic Kinetic Fusion compare to traditional repair or resurfacing?

Our compact cold spray systems cost considerably less than traditional repair and resurfacing methods for the following reasons:

  • You can resurface and refurbish parts in just minutes.
  • Materials often cost less than $300.
  • You no longer need to outsource repairs. For example, a shower floor manufacturer quoted $40,000 to ship a damaged resin transfer moulding tool overseas spent just $3,000 repairing it with Titomic’s D523 system – as well as saving months of downtime.
What is the density of Titomic Kinetic Fusion coatings?

We’ve achieved typical density rates of 90-95% and over 99% when enhanced by post-processing.

If needed, it’s also possible to create less dense, more porous coatings for grip, abrasion, chemical processing and more through process optimisation, powder manipulation, and post-processing parameters.

How do the material properties of TKF compare to casted or forged parts?

Generally, you can achieve mechanical properties similar to casting and forging. While some parts may need to be processed with a heat treatment to make them more ductile, we can tailor process variables to meet your specific needs – a clear advantage compared to other methods.

Do the parts need to be heat treated?

It depends on what parts you need, as well as the mechanical properties the application requires. However, generally parts created with TKF will need some post-processing heat treatment.

Why is it called ‘cold’ spray?

Cold spray doesn’t require heat to melt the materials being sprayed. This is different to traditional metal spraying methods like welding or thermal spraying, which use heat to melt the material before it’s applied to a surface.

Instead, a high-pressure gas is used to accelerate tiny metal particles (which are usually less than 50 micrometres in size) to supersonic speeds. This creates heat through kinetic energy, when the particles collide with the surface of the object being sprayed.

How does cold spray work?

Cold spray works by exploiting the kinetic energy of tiny metal particles. Low-to-high pressure gas is used to accelerate the particles (which are usually less than 50 micrometres in size) to supersonic speeds. These are then sprayed onto a surface where they compress and deform to create a cohesive bond.

This results in a strong, dense coating that can be used for a variety of applications – such as repairing damaged parts, improving the surface properties of a material, or creating new, complex shapes.

What metals can be used?

There are many metals that can be used in our cold spray systems. This includes aluminium, copper, nickel, titanium, stainless steel, Inconel, and more.

Since these all have different characteristics – such as strength, ductility, and resistance to corrosion – the chosen metals will depend on the application, as well as the properties needed for the final product.

Some metals may also be easier or more difficult to cold spray, depending on their melting point, ductility, and other factors.

What makes TKF so beneficial is that it can fuse dissimilar metals together. This means you can leverage the strengths of multiple metals in a single, monocoque part. For instance, you can fuse copper to titanium, nickel to cast iron, and much more.

What surfaces can metal be deposited onto?

Cold spray can be used on a variety of surfaces. This includes metals, ceramics, plastics, and composites.

The process is particularly useful for repairing worn or damaged metal parts, as it can restore the surface to its original shape and properties without causing distortion or weakening the material.

Our cold spray systems can also be used to add new features or properties to a surface, such as improved wear resistance, corrosion resistance, or thermal properties.

You can even use it to create new shapes or structures that would be difficult or impossible to achieve with traditional manufacturing methods.

What are the common applications?
There are hundreds of cold spray applications – with many more to be discovered. Learn about ideal cold spray applications or download our full design guide.
 
Common applications include:
  • Aerospace: Repair and restore worn or damaged aircraft parts (such as engine blades, landing gear, and wing components), or add corrosion-resistant coatings to aircraft surfaces.
  • Automotive: Repair and restore worn or damaged engine components (such as pistons, cylinder heads, and crankshafts), or add wear-resistant coatings to automotive parts.
  • Marine: Repair and restore worn or damaged marine components (such as propellers, shafts, and rudders) or add corrosion-resistant coatings to marine structures.
  • Oil & gas: Repair and restore corrosion and wear (such as shafts, bearings, piping, and valves).
  • Electronics: Add conductive coatings to electronic components (such as circuit boards and antennas), as well as repair and restore electronic devices.
  • Manufacturing: Create new shapes or features on metal parts (such as textured surfaces or complex geometries), or add wear-resistant coatings to industrial components (such as machine tools and moulds).