Celtic3d specializes in 3d modelling for 3d print and digital fabrication.
We take your CAD files, 2d plans or sketches and turn your ideas into physical objects in a range of materials.
Most of our work is in scale models rather than functional parts. Nothing grabs attention and communicates an idea quite as well as a physical model. We work with you to choose an appropriate scale and material and make sure the model is not only the right shape, it also has the right look and gives the right impression.
3d printed models are an excellent way to prototype your design or help you engage more effectively with your customers.
Our past projects range from detailed architectural models incorporating lift-off sections and internal detail, scale models of large subsea equipment and reduced weight versions of equipment that can be hand-carried to client presentations.
While additive manufacturing (3d printing) is our core business, we also incorporate more traditional materials and techniques where these make sense. For example, we use CNC for cut sheet and engraving in wood and plastics where that would give a better finished result.
We also produce a range of our own designs which we manufacture to order.
Our main value is in the digital design process where we prepare your digital model for manufacture. For most jobs, we follow that through, manufacture and finish the part and provide a transit or presentation case as a one-stop service.
We also offer a repair and maintenance aftercare service to keep your models looking sharp.
We use industry-leading digital manufacturing services that give access to the latest technology and factory-scale capabilities. We have also established a network of local 3d printing and digital design companies we regularly work with on collaborative projects that pool and share our respective expertise and capabilities.
Make your design the centre of attention in client presentations. Create more impact and communicate more clearly with a model.
3d Printed Architectural Models
Lost Capability Since Make Aberdeen closed in March, we have been working on ways to
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We can offer over 20 different materials with hundreds of possible surface finishes. Here is a small selection of our most commonly used materials.
Polyamide (PA) is a robust nylon material. Usually used with “Selective Laser Sintering” where a very fine PA powder is fused into a solid by laser, layer by layer.
The advantage of powder-based materials is that the loose powder provides support during the manufacturing process which makes it possible to print complex shapes that would otherwise need additional supports to be created.
PA is an excellent material for Engineering and Architectural models. It takes colour well and is tough enough to withstand handling if the model will be used to demonstrate operation.
Default colour: white. Can be dip-dyed or airbrushed to the desired colour.
Surface finish: Good levels of detail with a slightly grainy feel. Can be printed at thicknesses of 1mm (or even slightly less).
The unfinished material is porous, but can be impregnated with a sealant or given a coat of acrylic varnish to protect from stains.
Alumide is a Polyamide (PA) nylon infused with a low percentage of aluminium powder.
The Aluminium powder improves strength, makes the material more rigid and increases the heat range.
When used with a grey PA base material, the aluminium powder takes on the look of silica in granite. For that reason, we sometimes use Alumide to represent granite in architectural models.
While the surface finish is excellent, the trade-off is that Alumide cannot be printed quite as thin and does not support the same levels of fine detail as PA.
Full Colour Sandstone
Gypsum powder fused with a binder (similar to superglue) and coloured using inkjet technology.
Excellent for decorative parts requiring colour but the parts are quite brittle and will break if dropped.
Laser sintered steel powder which is then reinforced by wicking in molten bronze.
Can be plated in nickel, chrome or gold.
Inexpensive starter tier for 3d printed metals. Useful for decorative parts. Not suitable for load-bearing parts due to the lack of certification covering the manufacturing process.
The finish can be variable as it depends on the placement of parts in the furnace when the molten bronze is wicked into the part. We like the aged metal look that is achieved as this lends itself very well to our clan crest collections.
A master version is 3d printed in a wax-like material. An investment casting process is then used where a mould is made around the 3d printed master and the wax part is burned-out when molten bronze is poured into the mould.
We like the way this brings together digital manufacture with casting techniques that have been around for millenia.
After casting, the part is polished and finished with a PU coating to protect against tarnishing.
Similar to brass, we use high density 3d models to make sure we make best use of the high quality potential of the material.
This is our favourite material for our clan crest collection, it gives beautiful results that look and feel high-quality.
The part is 3d printed in a wax-like material suitable for investment casting. A mould is formed around the 3d-printed part and molten brass is poured into the mould.
The brass part is then polished and can be plated in precious-metals. We particularly like rhodium plating for a beautiful finish that would not look out of place in a jewellers shop.
Brass parts are much higher quality than the cheaper laser sintered steel. We use higher density 3d models for this process to get the best possible surface finish.
Formed from a photoreactive liquid using Stereolithography (SLA). A laser cures the resin layer-by-layer as the finished object is gradually drawn up out of the liquid.
There are a wide range of resins, some of which can closely represent the properties of plastics and finishes used in injection moulding. Resin can be an excellent way to prototype products before committing to expensive tooling required for injection moulding.
Resin parts can have very high levels of detail and very smooth surface finishes.
Often (especially for architectural models) there is a need for large flat surfaces. While it would be possible to 3d print large flat planes, it is much better (and cheaper) to incorporate sheet materials into the model where appropriate.
We laser-cut sheet acrylic and sheet ply-wood for many of our models. Having the 3d model file as a starting point, the processes to prepare a job for 3d printing is very similar to the process needed to prepare a job for laser-cutting.