Standard ABS Material Guide

Overview

Standard ABS (Acrylonitrile Butadiene Styrene) is one of the most widely used engineering thermoplastics, known for its excellent combination of strength, impact resistance, toughness, dimensional stability, machinability, and cost-effectiveness.

ABS combines the rigidity of acrylonitrile and styrene with the toughness of polybutadiene rubber, resulting in a versatile plastic suitable for both functional and aesthetic applications. It is commonly used in injection molding, CNC machining, thermoforming, and 3D printing.

Standard ABS is widely used in:

  • Consumer Electronics Housings
  • Automotive Interior Components
  • Appliance Parts
  • Industrial Equipment Enclosures
  • Medical Device Housings
  • Toys and Consumer Products
  • Prototypes
  • 3D Printing Applications

Due to its balanced mechanical properties and economical price, ABS remains one of the most popular engineering plastics worldwide.


Material Specification

PropertyValue
Material DesignationStandard ABS
Full NameAcrylonitrile Butadiene Styrene
Material FamilyEngineering Thermoplastic
Density1.03–1.07 g/cm³
AppearanceNatural, Black, Colored
Typical Manufacturing MethodsInjection Molding, CNC Machining, 3D Printing
Standard FormsSheet, Rod, Tube, Pellets, Filament

Chemical Composition

ComponentFunction
AcrylonitrileChemical Resistance
ButadieneImpact Strength
StyreneRigidity and Surface Finish

The balance of these three polymers provides excellent toughness and processing characteristics.


Mechanical Properties

PropertyValue
Tensile Strength40–50 MPa
Yield Strength35–45 MPa
Elongation at Break10–50%
Flexural Strength65–85 MPa
Flexural Modulus2.0–2.7 GPa
HardnessRockwell R95–115
Impact Strength (Izod)200–400 J/m

Typical Mechanical Performance

PropertyPerformance
Impact ResistanceExcellent
ToughnessExcellent
Dimensional StabilityGood
Fatigue ResistanceGood

Physical Properties

PropertyValue
Density1.03–1.07 g/cm³
Water Absorption0.2–0.4%
Thermal Conductivity0.17–0.20 W/m·K
Electrical Resistivity>10¹⁴ Ω·cm
Dielectric Strength15–20 kV/mm
Specific Heat Capacity1300 J/kg·K

Thermal Properties

PropertyValue
Glass Transition Temperature100–105°C
Heat Deflection Temperature (HDT)85–100°C
Vicat Softening Temperature95–105°C
Continuous Service Temperature-20°C to 80°C
Melting PointAmorphous Material

ABS is not recommended for continuous high-temperature environments.


Strength-to-Weight Ratio

MaterialDensity (g/cm³)Tensile Strength
Standard ABS1.0545 MPa
Polycarbonate1.2065 MPa
Nylon 61.1475 MPa
Aluminum 60612.70310 MPa

ABS provides excellent performance while maintaining a lightweight profile.


Chemical Resistance

Chemical EnvironmentPerformance
WaterExcellent
Dilute AcidsGood
Dilute AlkalisGood
AlcoholsGood
Oils and GreasesGood
Aromatic SolventsPoor
KetonesPoor

ABS should be protected from prolonged exposure to strong solvents such as acetone and MEK.


Impact Resistance

PropertyRating
Room Temperature ImpactExcellent
Low Temperature ImpactGood
Drop ResistanceExcellent
Shock ResistanceExcellent

Impact resistance is one of the primary reasons ABS is widely used for protective housings.


Electrical Properties

PropertyValue
Volume Resistivity>10¹⁴ Ω·cm
Surface Resistivity>10¹³ Ω
Dielectric Constant2.4–3.0
Dielectric Strength15–20 kV/mm

ABS is commonly used for electrical enclosures and consumer electronics housings.


Machinability

ProcessRating
CNC MillingExcellent
CNC TurningExcellent
DrillingExcellent
TappingExcellent
Laser CuttingGood

Machinability Comparison

MaterialMachinability
Standard ABSExcellent
Acetal (POM)Excellent
NylonGood
PolycarbonateGood

ABS machines cleanly and produces smooth finished surfaces.


Injection Molding Characteristics

PropertyRating
MoldabilityExcellent
Flow CharacteristicsGood
Surface Finish QualityExcellent
Dimensional AccuracyGood
Cycle TimeFast

ABS is one of the most commonly molded engineering plastics.


3D Printing Characteristics

PropertyRating
FDM PrintabilityExcellent
Layer AdhesionGood
Post ProcessingExcellent
Sanding & PaintingExcellent

ABS remains one of the most popular materials for functional FDM printing.


International Equivalent Grades

StandardEquivalent Grade
ISOABS
ASTMABS Resin
DINABS
JISABS Resin
GB/T (China)ABS工程塑料
ULABS Thermoplastic

Available Forms

Product TypeAvailability
SheetYes
RodYes
TubeYes
Injection Molding PelletsYes
3D Printing FilamentYes
Custom Molded PartsYes

Typical Applications

Consumer Electronics

  • Laptop Housings
  • Monitor Frames
  • Printer Components
  • Electronic Enclosures

Automotive Industry

  • Dashboard Components
  • Interior Trim
  • Control Panels
  • Ventilation Components

Industrial Equipment

  • Machine Covers
  • Electrical Enclosures
  • Equipment Housings

Consumer Products

  • Toys
  • Luggage
  • Household Appliances
  • Sporting Goods

Medical Equipment

  • Instrument Housings
  • Diagnostic Equipment Covers
  • Laboratory Equipment Components

Rapid Prototyping

  • Functional Prototypes
  • Product Development Models
  • Engineering Validation Parts

Manufacturing Characteristics

Manufacturing ProcessRating
Injection MoldingOutstanding
CNC MachiningExcellent
ThermoformingExcellent
Vacuum FormingExcellent
3D PrintingExcellent

Advantages

Excellent Impact Resistance

Provides superior toughness compared with many thermoplastics.

Good Surface Finish

Ideal for cosmetic and consumer-facing products.

Easy to Process

Suitable for injection molding, machining, and additive manufacturing.

Cost Effective

One of the most economical engineering plastics available.

Lightweight

Much lighter than metals while maintaining good strength.

Easy Post Processing

Can be painted, bonded, machined, and finished easily.


Limitations

Limited UV Resistance

Outdoor use typically requires UV-stabilized grades.

Moderate Heat Resistance

Not suitable for continuous temperatures above 80°C.

Solvent Sensitivity

Can be damaged by acetone, ketones, and aromatic solvents.

Lower Strength Than Engineering Plastics

Lower performance than PEEK, Nylon, and Polycarbonate in demanding applications.


Comparison with Common Plastics

PropertyABSPolycarbonateNylon 6Acetal (POM)
Impact ResistanceExcellentOutstandingGoodGood
RigidityGoodGoodGoodExcellent
Heat ResistanceModerateBetterBetterBetter
CostLowHigherModerateHigher
MachinabilityExcellentGoodGoodExcellent

Comparison with Common Engineering Materials

MaterialDensityTensile Strength
Standard ABS1.05 g/cm³45 MPa
Polycarbonate1.20 g/cm³65 MPa
Nylon 61.14 g/cm³75 MPa
Aluminum 60612.70 g/cm³310 MPa

Available Surface Finishes

Standard Finishes

  • Molded Finish
  • Matte Finish
  • Gloss Finish

Functional Finishes

  • CNC Machined Finish
  • Textured Finish
  • Sanded Finish

Decorative Finishes

  • Painted Finish
  • Chrome Plated Finish
  • Silk Screen Printing
  • UV Coating

Frequently Asked Questions (FAQ)

What is Standard ABS?

ABS is an engineering thermoplastic composed of acrylonitrile, butadiene, and styrene, offering excellent toughness and processability.

What is ABS used for?

Typical applications include:

  • Electronic Housings
  • Automotive Interior Parts
  • Consumer Products
  • Industrial Equipment
  • Prototypes

What is the density of ABS?

Standard ABS has a density of approximately 1.03–1.07 g/cm³.

Is ABS strong?

Yes. ABS offers a good balance of strength, toughness, and impact resistance.

Is ABS suitable for outdoor use?

Standard ABS has limited UV resistance. UV-stabilized grades are recommended for outdoor applications.

Can ABS be machined?

Yes. ABS offers excellent CNC machining characteristics and is widely used for prototypes and production parts.

Why choose ABS?

Because it combines:

  • Excellent Impact Resistance
  • Good Surface Finish
  • Easy Processing
  • Low Cost
  • Lightweight Performance

Is ABS good for 3D printing?

Yes. ABS is one of the most popular materials for FDM 3D printing due to its strength and post-processing capabilities.

Does GCNOV provide ABS manufacturing services?

Yes. GCNOV provides:

  • ABS CNC Machining
  • ABS Injection Molding
  • ABS Vacuum Forming
  • ABS 3D Printing
  • Surface Finishing
  • Prototype Development
  • Low-Volume Production
  • Mass Production