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Engineering Grade 3D Printing Services
Rely on Outlaw Prototyping for Fast, Accurate, and Strong 3D Printed Parts
Projects with 1-1000 parts - no problem we can help!
Every project is different and requires specific material types, colors, and additive manufacturing methods for success. Outlaw Prototyping offers a wide variety of materials and options including:
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Fine detail printing for small parts with Resin (SLA) printing.
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Specialty Engineering-grade filaments including PP, PC, and PETG-CF.
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Dual Extruder's for parts that require multiple materials in one print, or special support scenarios for part quality and ease support removal
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Post-Processing services including sanding, polishing, vapor smoothing, painting, and assembly.
Outlaw Prototyping 3D Printing Services can typically be turned-around in as little as 24 hours. If you are in Central Oregon and need them today, we can often accommodate quick turn-around deadlines and you can pick up your parts same day.
What are the Benefits of 3D Printing?
How to Start 3D Printing Today
#1
Upload or Email Your CAD File
Typical file formats for 3D printing include .STL and .3MF - however we also accept most other CAD files and convert them properly for you.
#2
Review and Recommendations
Our Engineering Team will review your CAD file and make any recommendations based on your use case - such as material, print orientation, or minor modifications for printability.
#3
Print and Package
We will take your CAD file and print your part(s) in record time. Once they are complete, we delicately package your parts to easily withstand any abuse from shipping.
#4
Pickup or Delivery
Based on your physical location, you can either pick up your parts at our Sisters, OR shop - or we can ship them directly to you. Larger orders in Oregon we often deliver at no additional charge.
What Material Should I Use For My Print?
Outlaw Prototyping offers a Wide-Variety of Materials to Print
With so many different types of plastics that can be printed now, it can be difficult to select the right material. Let's break it down so you get a better feel for what material best applies to your project.
Learn More About 3D Printing Services
Choosing the Right 3D Printing Process for Your Needs
3D Printed Computer Mouse
Selecting the right 3D printing process can be simplified by focusing on two key factors: the material you need and your specific application or use case.
Material Selection
Start by identifying the material requirements for your project. Different 3D printing techniques are often tailored to particular materials:
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If you require a specific plastic, consider technologies like Fused Deposition Modeling (FDM), known for its versatility with various thermoplastics.
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Need a durable metal part? Direct Metal Laser Sintering (DMLS) could be your go-to option.
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Desiring a smooth finish with resins? Investigate Stereolithography (SLA).
Once you know the material, narrowing down the printing technique becomes much easier.
Understanding the Use Case
Decide whether your project prioritizes function or aesthetics:
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Functional Parts: If you need a component that withstands mechanical stress or temperature, Selective Laser Sintering (SLS) offers robust, functional outputs.
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Visual or Prototyping Needs: For projects needing high detail and a polished appearance, SLA delivers high-resolution, visually appealing results.
By recognizing your primary requirement—whether it’s strength, flexibility, or visual appeal—you can align it with the appropriate 3D printing method.
Recommendations
Exploring guides and resources online can provide further insights into these processes, helping you make an informed decision. Understanding the strengths and limitations of each technology ensures that your project utilizes the optimal 3D printing process.
Considerations when Designing Parts for 3D Printing
Preview of 3D printed parts in slicer software. Notice the green Supports to help stabilize the parts during printing.
When designing parts for 3D printing, it's essential to pay attention to several key considerations to ensure a successful outcome.
Material Selection
Different materials have varying properties. Choose one that aligns with your project's needs, like flexibility, strength, or temperature resistance.
Design Software
The creation process usually involves using CAD software such as Solidworks or Fusion 360. Alternatively, you might opt for 3D modeling programs like Blender or Maya. Each offers robust tools tailored for precision in design, catering to different technical proficiencies and project requirements.
Printability
Ensure your design is optimized for the 3D printing process. This includes considering layer height, wall thickness, and support structures. Adequate wall thickness is crucial to prevent fragile prints, while support structures are necessary for intricate designs with overhangs.
Dimensional Accuracy and Scale
Be mindful of the scaling properties of your design. Oftentimes, adjustments may need to be made to ensure that the printed object meets the required dimensions.
Complexity and Detail
While 3D printing allows for intricate designs, it's important to balance complexity with the printer's capabilities. Overly detailed models might require advanced settings or high-resolution printers to capture the minutiae.
By focusing on these considerations, you ensure that your 3D printed parts are both functional and efficient, tailored to your specific objectives.
Types of 3D Printing Technologies
Example of SLS resin printer
3D Printing (Additive Manufacturing) is revolutionized by several key 3D printing technologies, each offering unique benefits and applications. Here's a breakdown of the major players:
1. Fused Deposition Modeling (FDM)
FDM is one of the most common and accessible forms of 3D printing. It involves the extrusion of thermoplastic filaments through a heated nozzle, which deposits the material layer by layer. This method is praised for its simplicity, cost-effectiveness, and suitability for prototyping.
2. Stereolithography (SLA)
SLA is known for its precision and ability to produce highly detailed objects. It functions by curing liquid resin with a UV laser, solidifying it into thin layers. This technology is particularly useful for creating intricate models with smooth surface finishes.
3. Selective Laser Sintering (SLS)
SLS (Pictured Left) utilizes a high-powered laser to fuse small particles of polymer powder. It's highly advantageous for creating complex geometries without the need for support structures, making it ideal for functional prototypes and low-volume production runs.
4. Multi Jet Fusion (MJF)
MJF, developed by HP, stands out for its speed and strength. This process uses a fusing agent to selectively bind powdered material, followed by a detailing agent for fine resolutions. MJF is popular for producing robust and durable parts efficiently.
These technologies collectively empower a wide range of industries by delivering tailored solutions in 3D printing, each serving specific industrial demands and applications.