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When it comes to 3D printing, the quality of the filament can make or break your project. Among the various materials available, PLA Marble stands out as a top choice for many enthusiasts and professionals alike. What defines the best quality PLA Marble for 3D printing? It's a combination of several key factors.
First and foremost, the color consistency and marbling effect are crucial. High - quality PLA Marble filaments offer a beautiful, natural - looking marble pattern that doesn't fade or distort during the printing process. Each roll should produce consistent results, ensuring that every print has that unique, aesthetically pleasing appearance.
Another important aspect is the filament's diameter accuracy. Inconsistent diameters can lead to clogs in the 3D printer's extruder and uneven layer deposition. The best PLA Marble filaments typically have a diameter tolerance of ± 0.02mm, which guarantees smooth feeding and reliable prints.
Moreover, the material's mechanical properties play a significant role. Good quality PLA Marble should have sufficient strength and durability. It should be able to withstand normal handling and environmental conditions without easily breaking or deforming. This makes it suitable for a wide range of applications, from decorative items to functional prototypes.
In addition, the ease of printing is a key consideration. The ideal PLA Marble filament has a low melting point, usually around 180 - 220°C, allowing for easy extrusion through the 3D printer's nozzle. It also has good adhesion to the print bed, reducing the chances of warping and ensuring a successful print from start to finish.
Finally, the reputation of the brand matters. Aliz has strict quality control measures in place. Aliz conduct thorough testing on their PLA Marble filaments, ensuring that they meet high - industry standards. Aliz offers the best quality PLA Marble for your 3D printing needs.
When it comes to 3D printing, the quality of the filament can make or break your project. Among the various materials available, PLA Marble stands out as a top choice for many enthusiasts and professionals alike. What defines the best quality PLA Marble for 3D printing? It's a combination of several key factors.
First and foremost, the color consistency and marbling effect are crucial. High - quality PLA Marble filaments offer a beautiful, natural - looking marble pattern that doesn't fade or distort during the printing process. Each roll should produce consistent results, ensuring that every print has that unique, aesthetically pleasing appearance.
Another important aspect is the filament's diameter accuracy. Inconsistent diameters can lead to clogs in the 3D printer's extruder and uneven layer deposition. The best PLA Marble filaments typically have a diameter tolerance of ± 0.02mm, which guarantees smooth feeding and reliable prints.
Moreover, the material's mechanical properties play a significant role. Good quality PLA Marble should have sufficient strength and durability. It should be able to withstand normal handling and environmental conditions without easily breaking or deforming. This makes it suitable for a wide range of applications, from decorative items to functional prototypes.
In addition, the ease of printing is a key consideration. The ideal PLA Marble filament has a low melting point, usually around 180 - 220°C, allowing for easy extrusion through the 3D printer's nozzle. It also has good adhesion to the print bed, reducing the chances of warping and ensuring a successful print from start to finish.
Finally, the reputation of the brand matters. Aliz has strict quality control measures in place. Aliz conduct thorough testing on their PLA Marble filaments, ensuring that they meet high - industry standards. Aliz offers the best quality PLA Marble for your 3D printing needs.
Printing Parameters
Description | Data | Desciption | Data |
Nozzle Temperature | 190—230℃ | Heated bed Temperature | 50-60℃ |
Printing Platform Material | Soft Magnetic Sticker | Printing Platform Surface Treatment | No Processing Required |
Bottom Value Sparation Distance | 0.4-0.6 | Withdrawal Distance | 1mm |
Environment Temperature | Room temperature | Withdrawal Speed | 50mm/s |
Recommended Support Material | PVA | Drying Temperature | 50℃ |
Printing Speed | 40--250 mm/s | Cooling Fan | 100% |
Suitable for all FDM 3D Printers / 3D Printing Machines |
Physical Properties
Properties | Testing method | Value |
Density | ASTM D792 | @23℃ 1.25g/cm3 |
Melt Flow Index | ASTM D1238 | 190℃/2.16kg 9g/10min |
Flame Properties
Properties | Testing method | Value |
Flame Retardance | UL94 | @1.5mm HB |
Thermal Performance
Properties | Testing Method | Value | |
Glass Transsition | ASTM D7426 | @10℃/min 60.9℃ | |
Melting Temperature | ASTM D7426 | @10℃/min 164℃ | |
Decomposition Temperature | ASTM E2402 | @20℃/min ≥364℃ | |
Cofficient of Thermal Expansion | ASTM E831 | 101×10-06 ㎛(m· ℃) | |
Shrinking Percentage | ASTM D955 | @23℃ 0.1-0.3% | |
Vicat Softening Temperature | ASTM D1525 | 5kg,50℃/h 54℃ | |
Heat Distortion Temperature | ASTM D648 | 0.45Mpa/53℃ |
Mechanical Performance
Printing Direction | Testing Standard | Data |
Tensile Strength | ASTM D638 | @50mm/min 60.6Mpa |
Elongation at break | ASTM D638 | @50mm/min 6.3% |
Flexural Strength | ASTM D790 | @2mm/min 65Mpa |
Flexural Modulus | ASTM D790 | @2mm/min 1895Mpa |
Charpy Impact Strength with Notched | ASTM D256 | @3.2mm 33J/㎡ |
Young Modulus | ASTM D638 | @1mm/min 2760Mpa |
Chemical Resistance
Item | Grade |
Weak Acids Affect pH3-6 | Good |
Strong Acids Affect pH<3 | Poor |
Weak Base Affect pH8-10 | Good |
Strong Base Affect pH>10 | Poor |
Deionized Water | Good |
Athyl Alcohol | Average |
Acetone | Poor |
Gasoline | Good |
Ether | Good |
Printing Parameters
Description | Data | Desciption | Data |
Nozzle Temperature | 190—230℃ | Heated bed Temperature | 50-60℃ |
Printing Platform Material | Soft Magnetic Sticker | Printing Platform Surface Treatment | No Processing Required |
Bottom Value Sparation Distance | 0.4-0.6 | Withdrawal Distance | 1mm |
Environment Temperature | Room temperature | Withdrawal Speed | 50mm/s |
Recommended Support Material | PVA | Drying Temperature | 50℃ |
Printing Speed | 40--250 mm/s | Cooling Fan | 100% |
Suitable for all FDM 3D Printers / 3D Printing Machines |
Physical Properties
Properties | Testing method | Value |
Density | ASTM D792 | @23℃ 1.25g/cm3 |
Melt Flow Index | ASTM D1238 | 190℃/2.16kg 9g/10min |
Flame Properties
Properties | Testing method | Value |
Flame Retardance | UL94 | @1.5mm HB |
Thermal Performance
Properties | Testing Method | Value | |
Glass Transsition | ASTM D7426 | @10℃/min 60.9℃ | |
Melting Temperature | ASTM D7426 | @10℃/min 164℃ | |
Decomposition Temperature | ASTM E2402 | @20℃/min ≥364℃ | |
Cofficient of Thermal Expansion | ASTM E831 | 101×10-06 ㎛(m· ℃) | |
Shrinking Percentage | ASTM D955 | @23℃ 0.1-0.3% | |
Vicat Softening Temperature | ASTM D1525 | 5kg,50℃/h 54℃ | |
Heat Distortion Temperature | ASTM D648 | 0.45Mpa/53℃ |
Mechanical Performance
Printing Direction | Testing Standard | Data |
Tensile Strength | ASTM D638 | @50mm/min 60.6Mpa |
Elongation at break | ASTM D638 | @50mm/min 6.3% |
Flexural Strength | ASTM D790 | @2mm/min 65Mpa |
Flexural Modulus | ASTM D790 | @2mm/min 1895Mpa |
Charpy Impact Strength with Notched | ASTM D256 | @3.2mm 33J/㎡ |
Young Modulus | ASTM D638 | @1mm/min 2760Mpa |
Chemical Resistance
Item | Grade |
Weak Acids Affect pH3-6 | Good |
Strong Acids Affect pH<3 | Poor |
Weak Base Affect pH8-10 | Good |
Strong Base Affect pH>10 | Poor |
Deionized Water | Good |
Athyl Alcohol | Average |
Acetone | Poor |
Gasoline | Good |
Ether | Good |