consumer-grade or Professional-grade
The strength gap in 3D printing is far greaterthan you might imagine
CreatBot
VS
Bambu Lab
A Comprehensive Comparison from Model to Material
D400 HS
VS
X1C
Test Filament
ABS High strength & toughness, ideal for mechanical tests.
ASA ABS-like strength, excellent UV/weather resistance.
D600 Pro3 Hs
VS
H2d
Test Filament
PACF High rigidity, heat resistance, but moisture-absorbent.
PET-CF High rigidity, stability, creep resistance, for precision parts.
Test Content
Each group of printers uses corresponding consumables to print test specimens in the XY direction and Z direction for comparison.
D400 HS
VS
X1C
XY direction
Z direction
D400 HS
VS
X1C
XY direction
Z direction
XY direction
Z direction
D600 Pro3 HS
VS
H2d
XY direction
Z direction
D600 Pro3 HS
VS
H2d
Print specialized test specimen models.
XY direction
Place the specimen's XY direction as the force-bearing direction (printed lying flat) and compare strength and cross-sectional properties.
Z direction
Place the specimen's Z direction as the force-bearing direction (printed standing upright) and compare strength and cross-sectional properties.
D400 HS
VS
X1C
Identical slicing parameters for both printers in each group.
D600 Pro3 HS
VS
H2D
Identical slicing parameters for both printers in each group.
Test Method
Setup Principle
Fix the load gauge to the frame and secure the specimen to the sliding platform. Connect the load gauge hook to the specimen. The motor drives the ball screw to move the platform upward at a constant speed until the specimen fractures. Record the peak load value at fracture.
Print at least 3+ samples each for XY and Z directions per material to minimize errors.
Load gauge unit: kg.
Calculate the average tensile strength and compare strength percentages.
D400 HS
VS
X1C
D600 Pro3 hs
VS
H2D
Test Data Summary
| Test materials | Test direction | CreatBot VS bambu Lab | Strength increase |
|---|---|---|---|
| ABS | XY direction | D400 HS VS X1C | +31% |
| Z direction | D400 HS VS X1C | +106% | |
| ASA | XY direction | D400 HS VS X1C | +31% |
| Z direction | D400 HS VS X1C | +69% | |
| PA-CF | XY direction | D600 Pro3 HS vs H2D | +33% |
| Z direction | D600 Pro3 HS vs H2D | +26% | |
| PET-CF | XY direction | D600 Pro3 HS vs H2D | +39% |
| Z direction | D600 Pro3 HS vs H2D | +58% |
What This Data Means for You
Z-Axis Strength is the Benchmark of Industrial Grade
A up to 106% improvement means parts from consumer-grade 3D printers are like a fragile stack of cards with weak interlayer adhesion. CreatBot's fully enclosed, high-temperature chamber ensures powerful layer bonding, manufacturing reliable parts that are robust in all directions.
Achieving Nearly "Isotropic" Reliability
We significantly minimize the inherent "anisotropy" weakness of 3D printing. This allows the components you design to deliver stable, predictable performance regardless of load direction, meeting the demands of rigorous industrial applications.
Unlocking the True Potential of Engineering Materials
Only industrial-grade equipment provides the stable, high-temperature environment required by high-performance materials like PA-CF and PET-CF. This ensures your investment in materials translates into their intended performance.
D400 HS VS X1c-Comparison of XY/Z direction cross-sections of test specimens
Stress whitening observed in cross-sections — This phenomenon, known as "stress whitening," is a typical characteristic of engineering plastics.
D600 Pro3 Hs VS H2d-Comparison of XY/Z direction cross-sections of test specimens
Note: Cross-sections of each sample may be enlarged for viewing.
Broken test spline samples
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