Our Clients
Access Comprehensive 3D Printing Services in Canberra
We utilise various materials and modern technologies to deliver high-quality prints at competitive prices.
Our state-of-the-art results ensure satisfaction, and our wide range of options makes ordering 3D printing jobs easy.
FDM Printing
Fused Deposition Modelling is a common 3D printing method that uses thermoplastic filament to build objects layer by layer.
Vacuum Casting
Creating high-quality prototypes or small production runs of plastic parts using silicone moulds and resin.
CNC Machining
Utilising computer-controlled machines to precisely remove material from solid blocks and create intricate parts.
SLS Printing
Selective Laser Sintering is a 3D printing technique that utilises a laser to sinter powdered material into a solid object layer by layer.
Metal Printing
Additive manufacturing method that uses metal powder to produce high-strength, complex metal parts.
Polyjet Printing
A 3D printing technology that jets and instantly UV-cures liquid photopolymer layer by layer.
SLA Printing
Stereolithography is a form of 3D printing that uses a UV laser to cure resin layers and create highly detailed parts.
Carbon Fibre
Utilizing carbon fibre reinforcement in 3D printing to produce strong, lightweight parts with excellent structural properties.
Injection Moulding
A manufacturing process for producing large volumes of identical plastic parts by injecting molten material into a mould.
Polymer Printing
Using 3D printing to create objects from various polymer materials, including plastics and resins.
Chocolate Moulding
Using 3D printing technology to create custom moulds for producing intricate chocolate shapes and designs.
Chrome Plating
A finishing process for adding a chrome layer to 3D printed parts, enhancing their appearance and durability.
Materials We Use
FDM 3D Printing
PLA(FDM)
Properties:
Tensile Strength- 70 Mpa
Temperature- 82 °C to 96 °C
Application:
Used for rapid prototyping.
ABS-M30i
Properties:
Tensile Strength- 31 Mpa
Temperature- 82 °C to 96 °C
Application:
Medical, pharmaceutical & food handling equipment
ASA(UV protected)
Properties:
Tensile Strength- 31.9 Mpa
Temperature- 97.9 °C to 102.2 °C
Application:
Automotive parts, sporting goods, outdoor functional prototyping & commercial use, like electrical housings.
PETG
Properties:
Tensile Strength- 53 Mpa
Temperature- 97.9 °C to 102.2 °C
Application:
Packaging (both retail and medical), advertising displays and electronic insulators.
PC
Properties:
Tensile Strength- 66 Mpa
Temperature- 210-250 °C
Application:
For tough applications like functional prototyping, tooling & production.
PC-ISO
Properties:
Tensile Strength- 57 Mpa
Temperature- 127 °C to 133 °C
Application:
Food & drug packaging and medical device manufacturing .
PC-ABS
Properties:
Tensile Strength- 34.7 Mpa
Temperature- 102.9 °C to 125 °C
Application:
Automotive like Glove boxes. Overhead and middle consoles and Electronics industries.
NYLON 6
Properties:
Tensile Strength- 49.3 Mpa
Temperature- 93 °C
Application:
Used in automotive, aerospace, consumer goods & industrial manufacturing.
NYLON 12
Properties:
Tensile Strength- 34.7 Mpa
Temperature- 84.3 °C to 94.7 °C
Application:
Used for tooling, jigs and fixtures to covers, panels and vibration resistant components.
NYLON 12CF
Properties:
Tensile Strength- 63 Mpa
Temperature- 143 °C
Application:
Used for heavy components in need of stiff and light-weight materials.
MED-610
Properties:
Tensile Strength- 50 – 65 Mpa
Temperature- 45 – 50 °C
Application:
Used for surgical guides like dental implant or orthopedic procedures.
ULTEM 9085
Properties:
Tensile Strength- 68.1 Mpa
Temperature- 172.9 – 176.9 °C
Application:
Used for Aerospace parts ECS ducting and metal forming tools.
ULTEM 9085 CG
Properties:
Tensile Strength- 68.1 Mpa
Temperature- 172.9 – 176.9 °C
Application:
Used for aircraft interior replacement parts, ECS ducting and metal forming tools.
ULTEM 1010(FDM)
Properties:
Tensile Strength- 50 – 60 Mpa
Temperature- 212.2 – 214.1 °C
Application:
Used for aerospace part, composite tooling, medical applications and food contact applications.
ST-130
Properties:
Tensile Strength- 430 Mpa
Melting point- 1480 – 1526 °C
Application:
Used as a construction element.
TPU 92A
Properties:
Tensile Strength- 16.8 Mpa
Temperature- 38 – 56 °C
Application:
Used for flexible hoses, tubes, air ducts, seals, protective covers and vibration dampeners.
PEEK
Properties:
Tensile Strength- 90 – 100 MPa
Temperature- 170 °C
Application:
It is a suitable metal alloy replacement in numerous structural applications and used in aerospace, automotive, oil and gas, fiber optics, alternative energy, to medical.
SLA 3D Printing
Accura ABS White (SL 7820)
Properties:
Tensile Strength- 46 – 48 Mpa
Temperature- 51 °C
Application:
Used for prototyping, manufacturing, anatomical models and more.
Accura ABS Black (SL 7820)
Properties:
Tensile Strength- 45 – 47 Mpa
Temperature- 51 °C
Application:
Used for prototyping, manufacturing, anatomical models and more.
Flexible 80A
Properties:
Tensile Strength- 8.9 Mpa
Temperature- 38 – 56 °C
Application:
Used for shock absorption, handles, grips, overmolds, cartilage, ligament anatomy, seals, gaskets and masks.
Acuura25
Properties:
Tensile Strength- 38 Mpa
Temperature- 51 – 63 °C
Application:
Used for functional prototyping or end-use parts and good for short production run.
Transparent resin
Properties:
Tensile Strength- 45 – 65 Mpa
Temperature- 38 – 56 °C
Application:
Used for the production of river tables, glass clear embeddings and coatings as well as for applications in decoration and art.
SLA tough resin
Properties:
Temperature max upto 80 C
Application:
Used for sturdy, shatter-resistant parts like enclosures or seat belt, clasps and high-performance 3D prototypes.
Temperature resin plastic
Properties:
Tensile Strength- 50 – 60 Mpa
Temperature- 200 – 300 °C
Application:
Used for manufacturing heat resistant fixtures, mold prototypes, hot air and fluid flow equipment, and casting and thermoforming tooling.
PMMA
Properties:
ensile Strength- 64.8 – 83.4 MPa
Temperature- 40 °C to 120 °C
Application:
Used as a lighter, shatter-resistant alternative to glass in everything from windows, aquariums and hockey rinks.
SLS 3D Printing
Nylon PA2200 (White)
Properties:
Tensile Strength- 48 Mpa
Temperature- 172 – 180 °C
Application:
Used for fully functional parts, snap-fit assemblies and moving parts, complex and intricate geometries, automotive, medical, packaging industries.
Nylon PA11/12
Properties:
Tensile Strength- 48 Mpa
Temperature- 46 – 180 °C
Application:
Used for functional prototypes and series parts such as hinges. and also used for automotive interior components for crash relevant parts.
Flexible TPU 86A
Properties:
Tensile Strength- 7 Mpa
Temperature- 138 °C
Application:
Used for caster wheels, automotive instrument panels, sporting goods, power tools, medical devices, footwear, drive belts, inflatable rafts.
Glass-filled nylon 3200
Properties:
Tensile Strength- 51 Mpa
Melting point- 176 °C
Application:
Used for products which requires good strength and stiffness.
Nylon PA12 Glassfilled
Properties:
Tensile Strength- 12 – 140 Mpa
Melting point- 90 – 182 °C
Application:
Used for functional prototypes as well as end-use parts for demanding applications such as aerospace and automotive.
Alumide
Properties:
Tensile Strength- 42 – 48 Mpa
Melting point- 172 – 180 °C
Application:
Used to manufacture complex shapes, stiff parts, automotive parts and for the parts which require a metallic appearance.
Multi Jet Fusion PA12
Properties:
Tensile Strength- 48 Mpa
Temperature- 95 -175 °C
Application:
Used for mechanical purposes such as prototypes or finished products like geared systems.
HP Premium Nylon PA12
Properties:
Tensile Strength- 48 Mpa
Temperature- 95 -178 °C
Application:
Used for temperature resistance dies, patterns and fixtures for food production, surgical guides, aerospace components, housing components.
SLM 3D Printing
Aluminum 2024-T81
Properties:
Tensile Strength- 450-485 Mpa
Melting point -502- 638 °C
Application:
Used for Aircraft fittings, gears and shafts, bolts, clock parts, computer parts, couplings, fuse parts.
Aluminum 6160
Properties:
Tensile Strength- 124 – 290 Mpa
Melting point -502- 585 °C
Application:
Used for Welded assemblies, Marine frames, Aircraft and truck frames, Chemical equipment, Electronic parts, Furniture, Fasteners.
Aluminum 2024-T851
Application:
Used for Aircraft fittings, gears and shafts, bolts, clock parts, hydraulic valve bodies and also used for automobile parts.
Stainless steel 316
Properties:
Tensile Strength- 580 Mpa
Melting point – 1400°C
Application:
Used for Aircraft fittings, gears and shafts, bolts, clock parts, hydraulic valve bodies and also used for automobile parts.
Stainless steel D6AC
Properties:
Tensile Strength- 1572 -1931Mpa
Melting point – 1426°C
Application:
Used for horizontal Tail Support Bulkhead, Main gear support bulkhead, Main & Nose landing gear.These materials improve tensile strength and has light weight.
Stainless steel 300M
Properties:
Tensile Strength- 1930 Mpa
Temperature – 850 – 1050°C
Application:
Used for aircraft landing gear, high strength bolts, flap tracks, structural applications and airframe parts.
Titanium Ti-6Al-4V
Properties:
Tensile Strength- 1100 – 1170 Mpa
Temperature – 600°C
Application:
Used for making structural components of aircraft, hydraulic systems, engine components, helicopter, rotor blades, rockets and spacecraft.
Titanium Ti-6Al-6V 2Sn
Properties:
Tensile Strength- 1210 – 1280 Mpa
Temperature – 1627°C
Application:
Used in plate and forging applications for rocket cases, airframe sections, and ordnance parts.
Titanium 3Al-2.5V
Properties:
Tensile Strength- 500 Mpa
Melting Point – 1700°C
Application:
Used in tubular form and has useful properties for applications in hydraulic systems due to it’s strength.
Brass
Properties:
Tensile Strength- 338 – 469 Mpa
Melting Point – 900 – 940°C
Application:
Used in locks, hinges, gears, bearings, ammunition casings, zippers, plumbing, hose couplings, valves, and electrical plugs and sockets.
Copper
Properties:
Tensile Strength- 33.3 – 210 Mpa
Melting Point – 1085 °C
Application:
Used to produce heat pipes, mold inserts, electrodes and aviation and military devices.
Bronze
Properties:
Tensile Strength- 125 – 240 Mpa
Melting Point – 950 °C
Application:
Used for jewelry creation, such as rings, pendants, bracelets and also used in Marine applications due to its excellent corrosion resistance in sea water applications and medium strength levels.
Polyjet 3D Printing
Digital ABS Plus
Properties:
Tensile Strength- 55 – 60 Mpa
Temperature- 58 – 68 °C
Application:
Used for Functional Prototyping, Snap-fit parts for high or low temperature use, Electrical parts, casings, mobile phone casings, engine parts and covers.
Sandstone
Properties:
Tensile Strength- 6.4 Mpa
Temperature- 60 °C
Application:
Used for making architectural models, full-color figures, Souvenirs, and building three-dimensional models for casting.
Tango
Properties:
Tensile Strength- 0.8-1.5Mpa
Shore Hardness- 26-28 Scale A
Application:
Used for handles, gaskets or footwear in a range of Shore A values comparable to rubber bands, tire treads and shoe heels.
Vero pure white
Properties:
Tensile Strength- 50 – 60 Mpa
Temperature- 45 – 50 °C
Application:
Used for light functional testing, patterns, prototypes, UV protected parts, and models.
Vero Black Plus
Properties:
Tensile Strength- 50 – 60 Mpa
Temperature- 45 – 50 °C
Application:
Used for UV Resistance products, electrical housing and Medical Devices.
Vero Ultra
Properties:
Tensile Strength- 60-70 Mpa
Temperature- 45 – 54 °C
Application:
Used for making Consumer Electronics , Automotive, Consumer goods, packaging, Toys & Figurines.
High Temperature
Properties:
Tensile Strength- 6.4 Mpa
Temperature- 63-67 °C
Application:
Used for static parts or thermal testing parts that require high heat resistance such as plumbing fixtures and household appliances.
Vero Clear(Transperent)
Properties:
Tensile Strength- 70-80 Mpa
Temperature- 45 – 50 °C
Application:
Form and fit testing of clear or see-through parts, medical applications, artistic and exhibition modeling.
PP Grade
Properties:
Tensile Strength- 19-45 Mpa
Melting Temperature- 130-171 °C
Application:
Used for making packaging, textiles, healthcare, pipes, automotive and electrical applications.
Agilus30(Flexible and Tear Resistant)
Properties:
Tensile Strength- 2.4 – 3.1 Mpa
Application:
Used for medical Models, tooling needing rubber-like characteristics, consumer Goods, sporting goods, general prototyping, overmolding.
MED610 (Medical grade)
Properties:
Tensile Strength- 50 – 65 Mpa
Temperature- 45 – 50 °C
Application:
Used for dental Surgical Guides, prototyping for medical and dental products.
Other Materials
Polyamide (PA)
Properties:
Tensile Strength- 80 Mpa
Melting Temperature- 320-345°C
Application:
Used in various industries like transportation, electronics & electrical, consumer goods, building & construction and packaging.
PC
Properties:
Tensile Strength- 66 Mpa
Melting Temperature- 265°C
Application:
Used for plastic lenses in eyewear, medical devices, automotive components, protective gear, greenhouses, Digital Disks and exterior lighting fixtures.
POM
Properties:
Tensile Strength- 60 Mpa
Temperature- 190 – 210°C
Application:
Used for small gear wheels, eyeglass frames, ball bearings, ski bindings, fasteners, gun parts, knife handles, and lock systems.
Nylon Carbon fiber glass
Properties:
Tensile Strength- 95 Mpa
Melting Temperature- 180°C
Application:
Used for requiring high stiffness and low abrasive wear, Bearings, bushings, gears, Rollers, Industrial clamp, Machine parts, Complex and intricate geometries.
PTFE
Properties:
Tensile Strength- 41.4 Mpa
Temperature- 260°C
Application:
Used for seals PTFE gaskets, valves, wire insulation, insulated transformers, bearings, surface coatings, chemical processing equipment, chemical transport and PTFE rubber diaphragms.
The Rise of 3D Printing In Canberra
- CAD Deziners offers advanced 3D printing services for rapid prototyping, custom manufacturing, and intricate designs.
- With modern facilities and a dedicated team, we transform imaginative ideas into tangible creations.
- Our services cater to new businesses, established companies, and individual creators with on-demand 3D printing services in Canberra.
Why Choose Our 3D Printers in Canberra?
CAD Deziners offers top-notch equipment and expertise to help you bring your ideas to life.
Benefit from:
Benefit from CAD Deziners’ affordable and professional services in Canberra, ensuring you receive expert assistance without breaking the bank.
Enjoy superior quality results with CAD Deziners’ commitment to excellence, delivering top-notch solutions tailored to your needs.
With CAD Deziners’ wide delivery options, your project can reach you wherever you are, ensuring convenience and accessibility.
Trust CAD Deziners’ transparent pricing for peace of mind, allowing you to plan and budget effectively for your project needs.
How Does 3d Printing Works
Gain Success With Us
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Who Are We?
CAD Deziners makes 3D-printed models and objects tailored to clients’ needs. We are a major service provider to various industries, such as engineering, manufacturing, and design.
Various sectors use our 3D printing services in Canberra for prototypes and pre-construction models, enabling idea testing and customisation. Our expert team ensures top-quality 3D printing and an excellent customer experience.
Frequently Asked Questions
What is the definition of 3D Printing or additive manufacturing?
3D printing, or additive manufacturing, uses modern printing and production technology to build three-dimensional objects based on digital design files, typically in STL files. This process operates layer by layer, with each layer visible upon close inspection. Unlike traditional manufacturing methods, 3D printing enables the production of complex geometries without sacrificing product quality; in contrast to conventional manufacturing, which employs subtractive fabrication techniques, 3D printing offers highly customisable options for materials, colours, and surface textures.
What are some common types of 3D Printing?
Some common types of 3D printing include:
- Digital Light Processing (DLP)
- Selective Laser Sintering (SLS)
- Stereolithography (SLA)
- Fused Deposition Modeling (FDM)
- Electron Beam Melting (EMB)
- Laminated Object Manufacturing (LOM)
- Selective Laser Melting (SLM)
- Material Jetting and Binder Jetting (BJ).
How does 3D printing technology work?
3D printing technology operates in three main stages. Firstly, engineers utilise 3D CAD software to design models with professional features, creating an STL file. This file format is compatible with 3D printers.
Secondly, the 3D printing machine begins constructing objects layer by layer, adding each layer until the entire object is formed.
Finally, post-production finishing work is carried out after all layers are printed. This ensures the printed object achieves the desired appearance.
What is the difference between Rapid Prototyping and Rapid Manufacturing?
Rapid prototyping is one of the methods used to quickly create a preliminary design of a product to evaluate its overall design and identify necessary improvements before final production. This process enables engineers to conduct a range of tests to assess factors such as functionality, performance, and ergonomics. Rapid prototyping is commonly utilised in the early stages of product development to test new concepts and iterate on designs efficiently.
Rapid manufacturing differs slightly from rapid prototyping in that it involves the production of final objects using techniques such as solid free form manufacturing and direct digital manufacturing. In rapid manufacturing, the design and usage patterns of the item are considered during testing. This approach allows for the creation of functional end-use parts rather than just prototypes, facilitating the rapid production of customised or low-volume components with reduced lead times.
Which industries are using additive manufacturing technology?
- Additive manufacturing, or 3D printing, is increasingly utilised across various industries for many tasks. Some of the major industries leveraging the potential of additive manufacturing include:
- Healthcare
- Robotics
- Aerospace
- Education
- Textiles
- Manufacturing
What are some of the Industrial Benefits of Metal 3D Printing?
The most significant advantage of 3D printing with metal is its ability to optimise costs while maintaining accuracy. Thanks to the superior build quality offered by 3D printing technology, the quality of the final product is never compromised.
Another benefit of 3D metal printing is its ability to minimise waste. The filament material is used only where required, leaving behind minimal waste. Complex designs are never a challenge with 3D metal printing, as the technology easily creates intricate designs.
What are some of the different metal additive manufacturing techniques?
Metal 3D printing has revolutionised the manufacturing industry. It mainly employs powder bed technologies to achieve this. In this process, powdered metals create solid metal objects after a UV ray projection. Laser lights and certain filaments may also prepare the powdered metal. Binder jetting and laser metal deposition methods are commonly used in 3D metal printing.
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Caddeziners has a state of the art additive manufacturing centre, with expert staff on site to print your 3D parts for you. Using Toll Priority courier, you can be rest assured that long waiting times will become a thing of the past and you’ll receive your 3D printed part promptly.