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ABS (Acrylonitrile Butadiene Styrene) is a petroleum-based engineering thermoplastic copolymerized from three monomers: acrylonitrile, butadiene, and styrene. It combines rigidity, toughness, and heat resistance, making it a classic industrial-grade 3D printing material.
ABS is a versatile material that balances performance and practicality, with a broad application base in industrial manufacturing, electronics, and automotive sectors.
Balanced rigidity and toughness, impact-resistant and flex-tolerant, suitable for a variety of functional parts.
Printed parts have a natural sheen, giving finished products a refined appearance.
Base material withstands approximately 75-80°C, suitable for everyday elevated-temperature applications.
Wear-resistant, electrically insulating, and dimensionally stable, suitable for industrial tooling and electronic accessories.
The widespread adoption of ABS in 3D printing stems from its excellent mechanical properties and industrial compatibility.
Balanced rigidity and toughness, impact-resistant and flex-tolerant, maintains toughness even at low temperatures — suitable for load-bearing and vibration-resistant parts.
Base material withstands approximately 75-80°C, suitable for everyday elevated-temperature applications.
Printed parts have a natural gloss, giving finished products a refined look.
Wear-resistant, electrically insulating, dimensionally stable — suitable for industrial tooling and electronic accessories.
Moderately priced and easy to process, ideal for batch production of functional parts.
Addressing the pain points experienced by end-users in traditional ABS printing, eSUN has invested in systematic R&D optimization — leveraging three core technologies: low-warp formulation, Z-axis strength enhancement, and heat resistance improvement — to continuously drive ABS material performance breakthroughs.
High rigidity, impact-resistant, wear-resistant, crack-resistant — suitable for medium-to-high-strength load-bearing parts.
Heat deflection temperature of 75-80°C, resists deformation in everyday high-temperature environments.
High surface gloss, can be painted, electroplated, or polished for superior appearance.
Good electrical insulation, resists everyday friction — suitable for electronic and appliance parts.
Resists deformation after printing, maintaining structural integrity over long-term use.
Further enhance surface quality with acetone. Easily remove layer lines and achieve a professional, glossy finish that goes beyond the standard print.
| Property | Description | Impact |
|---|---|---|
| Demanding Print Conditions | Requires 230-270°C extrusion, 95-110°C heated bed, and enclosed chamber to prevent warping | High requirements for printer equipment and environment |
| Printing Odor | Releases mild irritating fumes at high temperatures | Requires well-ventilated printing environment |
| Poor Weather Resistance | Not UV-resistant, prone to aging, discoloration, and embrittlement with prolonged outdoor exposure | Not suitable for long-term outdoor applications |
| Weak Solvent Resistance | Not resistant to aromatics, ketones, and other organic solvents | Susceptible to corrosion, limited chemical environments |
| High Hygroscopicity | Absorbs moisture easily, causing bubbles and poor interlayer adhesion when damp | Requires strict drying before use |
Building on the ABS base material, eSUN has developed a rich family of derived materials through various modification technologies.
Addressing the severe warping problem of traditional ABS, this formulation uses micron-level anti-warp technology to achieve zero-warp enclosed-chamber printing. It optimizes bridging and overhang performance, improves dimensional accuracy and stability, while preserving ABS's classic rigid-tough balance.
Through heat resistance optimization technology, the heat deflection temperature is increased to 89°C, solving the poor heat resistance of conventional ABS and broadening desktop-grade printing applications. Suitable for functional parts requiring higher temperature tolerance.
Carbon fiber reinforcement added to the ABS base material significantly improves rigidity, strength, and dimensional stability. Suitable for industrial applications requiring higher structural strength and lower thermal expansion coefficients.
Specifically developed for electronics manufacturing and ESD-sensitive environments, with stable static dissipation properties to protect precision electronic components from electrostatic damage. Suitable for electronic tooling, chip trays, and anti-static fixtures.
| Industry | Typical Applications | Material Value |
|---|---|---|
| Electronics & Electrical | Electronic product housings, insulating parts, keyboard keys, instrument enclosures | Good electrical insulation, wear-resistant — suitable for electronic component manufacturing |
| Automotive | Interior trim, dashboard components, door parts, vehicle functional parts | Rigid-tough balance, heat-stable — meets automotive functional part requirements |
| Industrial Manufacturing | Tooling and fixtures, machinery housings, wear parts, assembly aids | Dimensionally stable, wear-resistant, insulating — suitable for industrial tooling |
| Home Appliances | Appliance housings, control panels, internal brackets, component parts | Excellent surface finish — suitable for appliance exterior and structural parts |
A US customer used eSUN ABS to customize vintage car parts, fully validating the reliability and compatibility of ABS in the automotive modification field.
Comparison materials: PLA, ASA
| Dimension | ABS | PLA | ASA |
|---|---|---|---|
| Mechanical Rigidity & Toughness | Rigidity, impact resistance, and flex tolerance fully surpass PLA — an engineering-grade material | Brittle, cannot withstand repeated stress | Comparable to ABS but at higher cost |
| Low-Temperature Toughness | Maintains high toughness in low-temperature environments without cold embrittlement | Low-temperature brittleness worsens | Low-temperature performance comparable to ABS |
| Printing Threshold | Requires 230-270°C + enclosed chamber | Lowest — entry-level printers sufficient | Similar to ABS, requires enclosed chamber |
| Weather Resistance | Not UV-resistant, prone to outdoor aging | Not UV-resistant, prone to outdoor degradation | UV-resistant, excellent outdoor weatherability |
| Cost & Processing Window | Moderately priced, wide processing temperature range, slightly lower tuning difficulty | Lowest cost | Higher cost than ABS |
| Post-Processing | Can be painted, electroplated, polished — mature post-processing workflow | Can be sanded and painted, but not electroplated | Post-processing similar to ABS |
| Parameter / Operation | Recommended | Notes |
|---|---|---|
| Extrusion Temperature | 230 - 270°C | Fine-tune based on equipment and material grade |
| Heated Bed Temperature | 95 - 110°C | High-temperature heated bed required, PEI sheet recommended |
| Cooling Fan | Off or ≤20% | Avoid rapid cooling causing warping |
| Print Speed | ≤ 50 mm/s | Slower speeds improve interlayer adhesion |
| Chamber Temperature | ≥ 40°C | Enclosed chamber to maintain stable temperature |
| Drying Treatment | 65°C / 4-6h | Recommended before use to prevent bubbles |
The above parameters are for reference only. Actual settings should be adjusted based on printer model, nozzle, and model geometry. This guide does not replace the official specification sheet for specific products.