Service
We provide a 3D printing manufacturing service focused on functional and end-use parts. We manufacture mechanical components based on your 3D model data and additional requirements, using engineering-grade thermoplastics and controlled production processes.
We use exclusively Fused Deposition Modeling (FDM), also known as Fused Filament Fabrication (FFF) to produce your parts.
Our strengths are:
Our Workflow
Cad Evaluation
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Review file for orientation, tolerances, and wall thickness.
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Identify potential printing challenges and suggest modifications.
Quality Inspection
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Visual inspection for defects or anomalies.
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Dimensional checks for critical features.
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Verification against customer requirements.
Material Selection
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Select suitable filament based on application (rigidity, flexibility, thermal requirements).
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Evaluate if standard or custom material is required.
Post Processing
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Trimming, sanding, or finishing as needed.
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Surface treatment or additional finishing if required.
Printing
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Industrial FDM machines with controlled temperature and environment.
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Layer-by-layer build to achieve required dimensional stability.
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Controlled print parameters for each material type.
Delivery
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Packaging for safe delivery to customer.
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Confirmation and tracking of shipment.
Industrial Quality
Quality-Driven Production
Standardized and monitored manufacturing processes to ensure consistent output. Focused on precision, repeatability, and dependable part performance.
Repeatable & Controlled Production
Defined process parameters maintained across batches. Ensures dimensional consistency and stable mechanical properties.
Validated Material Selection
Materials selected based on mechanical requirements and application conditions.
Ensuring strength, durability, and long-term reliability.
Assemblies & Insert Integration
Support for multi-part assemblies and embedded metal inserts.
Designed for mechanical stability and practical integration.
Design Consideration
To achieve reliable performance and dimensional stability, parts manufactured with FDM should be designed specifically for layer-based fabrication. Proper geometry, orientation, and material selection significantly influence strength, accuracy, and manufacturability. Follow these guidelines to ensure an excellent part:
01
Layer Orientation & Load Direction
FDM parts are inherently anisotropic — they are stronger within layers and weaker between them. This becomes critical for load-bearing parts. If tensile or bending forces act across layers, the part is more likely to fail at layer interfaces. Wherever possible, parts should be oriented so that primary loads run along the layer direction. In real applications, poor orientation is one of the most common reasons for unexpected part failure.
02
Wall Thickness & Feature Stability
Thin walls and slender features may look fine in CAD but often behave differently during printing. Walls below 1.2 mm can become inconsistent or fragile, especially in taller geometries. For functional components, 1.5–2 mm provides better reliability. Thin vertical features, even if printable, can become brittle or vibrate during printing, leading to poor surface quality or dimensional deviation.
03
Overhangs, Bridges & Support Strategy
While FDM can handle moderate overhangs, angles beyond 45° typically require support. Unsupported regions may sag or show poor surface finish. Bridging (printing across gaps) is possible for short spans, but longer bridges can droop depending on material and cooling. Designing with self-supporting angles or breaking complex geometries into multiple parts can significantly reduce post-processing effort and improve consistency.
04
Fillets, Corners & Stress Concentration
Sharp corners are natural stress concentrators and should be avoided in functional parts. Internal corners should include fillets (typically ≥1 mm radius) to distribute stress and reduce the risk of cracking. This is especially important in parts subjected to repeated loading or vibration. Small design changes here often make a noticeable difference in durability.
05
Thermal Behavior & Warping
As thermoplastics cool, they shrink — and this can lead to warping, especially in large flat areas or long walls. Materials like ABS are more sensitive to this. Adding fillets, ribs, or breaking large surfaces into smaller sections helps reduce internal stress and improves dimensional stability. Ignoring this often leads to parts lifting from the build plate or deforming after printing.