
Industrial Design
Power Tool & Electronics Enclosures
Drill and driver enclosure prototypes from $150 in two days, against $10,000 for moulded parts.

ABS is a tough, cost-effective plastic for FDM 3D printing, used for functional prototypes, enclosures, jigs and fixtures and low-volume production parts. Parts stand up to knocks and daily handling and hold their shape in warm service. They are easy to sand, drill, tap and paint, so a prototype can look like the finished product. Product teams, architects and automotive and aerospace engineers use it for power tool and electronics housings, presentation models and cabin and dashboard mock-ups. Stratasys ABS-M30 is the production ABS made for Fortus systems and is stronger than standard ABS. It stands up to fuels, engine coolant and alcohols, which makes it the grade for jigs, fixtures, inspection tooling and low-volume production parts.
Also available in Triton ABS.
How ABS is manufactured
ABS is manufactured using Fused Deposition Modeling (FDM) on Stratasys Fortus production systems, which build parts layer by layer from thermoplastic filament with no tooling. The soluble support material dissolves away, opening internal channels, undercuts and captured fastener geometry that traditional manufacturing cannot produce, with no manual rework. FDM makes ABS ideal for both functional prototypes and end-use production parts requiring durability and aesthetic appeal.
Upload CAD files to Forge Labs Steam for instant ABS pricing and live manufacturability feedback, and fix issues before production.
Upload CAD files to Forge Labs Steam for instant ABS pricing and live manufacturability feedback, and fix issues before production.



ABS-M30 from Forge Labs delivers production-grade FDM parts with the impact strength and dimensional repeatability demanded by end-use tooling and rugged field hardware. Superior energy absorption and toughness suit demanding applications, with good resistance to fuels, coolant and alcohols. ABS-M30 is stronger than standard ABS.
Tight tolerances keep multi-part assemblies repeatable from build to build. From rapid prototyping to production runs, teams rely on ABS to reduce assembly complexity through consolidated part designs.
Heat deflection of about 100 °C, even under the higher 1.82 MPa load, lets ABS hold its shape through shop-floor duty cycles that would deform commodity plastics.
Painted and smoothed surfaces with threaded inserts deliver showroom-ready parts for pilots or investor demos within days instead of weeks. Balanced performance at competitive pricing makes ABS a cost-effective, recyclable choice with consistent properties part after part.

Industrial Design
Product teams use ABS for housings that must fit the electronics inside and the hand holding them, with integrated standoffs and fastener bosses. On a smart power tool program, FDM ABS and ASA drill and driver prototypes were assembled, handled and revised, then primed and painted for trade shows. A drill enclosure cost $200 and took two days, against $10,000 and two to six weeks for moulded parts, and the finished prototypes won a Pinnacle Innovation Award at the National Hardware Show.

Architecture
Architects and planners use ABS for massing and presentation models that are handled, transported and shown again and again. Large models print in sections that join with fasteners or magnets, so buildings lift off and the model can travel, and different FDM colours can sit in one assembly to highlight a proposal. ABS is impact resistant for handling and easy to sand, prime and paint for exhibitions and planning submissions.

Marine & Subsea
Underwater vehicle builders use FDM for the installation and interior parts around a hull. One AUV builder has ordered drilling templates, drill jigs, connector panels, cable trays and short production runs from Forge Labs since 2017, in FDM materials including ABS, with ASA reserved for exterior parts that see sun on deck. A printed template marks an opening or bolt pattern before the hull is cut, so a low-cost part lowers the risk of a mis-cut or mis-drilled hole in a finished hull.

Robotics & Automation
Assembly cells need jigs and poka-yoke nests that locate parts the same way every shift. On a wearable robotics program, FDM ABS assembly jigs were supplied alongside repeat SLS actuator parts and test fixtures, and the same approach suits datum fixtures and cable-managed sensor mounts on conveyor lines. ABS stays rigid and tough in nests that are clamped and handled all day; load-bearing fixtures print solid, while jigs that only locate a part can use sparse fill.

Automotive
Motorsport and automotive teams print ducts, brackets and cockpit hardware in ABS to iterate without tooling. Dashboard electronics housings are ready for paint and texture, cooling ducts are revised between wind-tunnel sessions, and drill guides locate holes for composite body panel fit-up. ABS-M30 holds up well to petroleum fuels and engine coolant, so parts handle a brief splash in the garage or on track.

Aerospace
Cabin retrofit teams use ABS to mock up passenger service unit bezels and seat shrouds and to prototype environmental control ducts for airflow tests. Smooth, paint-ready surfaces accelerate trim reviews, and maintenance teams print on-wing drill jigs and go/no-go gauges. Design verification models, inspection tooling and surrogate parts are core uses of ABS-M30.
Values from the Stratasys ABS-M30 datasheets, tested to the standard listed with each property.
Mechanical performance
ABS delivers dependable strength and impact resistance, helping teams move from prototype to production with confidence. Its balanced mechanical profile suits jigs and fixtures, enclosures and functional prototypes.
FDM parts are strongest along their layers. XZ values come from specimens printed on edge, with the load along the layers, and ZX values from upright specimens, with the load across them, so orient loaded features, snap-fits and impact faces along the build plane.
Material makeup
Consistent density and surface quality keep critical features in tolerance and downstream finishing predictable. Low density makes parts lightweight yet durable, and Rockwell hardness indicates how well surfaces resist denting and scuffing on handled tooling and enclosures.
Holes that must be precise are best drilled or reamed after printing, and long bolt patterns opened or slotted in CAD, so assemblies fit within normal FDM tolerance.
Heat performance
Heat deflection is measured at two loads and in two print directions. ABS-M30 holds its shape close to its glass transition temperature under both loads, so parts keep their dimensions in warm service, from shop-floor fixtures to equipment near heat sources.
Vicat softening marks where a loaded surface begins to soften, and the expansion coefficients help size clearances on assemblies that see temperature swings.
Functional performance
ABS-M30 is an electrical insulator, and its volume resistivity and dielectric strength suit housings and insulating features in electrical assemblies.
Dielectric constant and dissipation factor are given at 1 kHz and 2 MHz in two print directions, which helps evaluate dielectric losses in signal-sensitive or high-frequency use cases.
Compatibility data
Stratasys rates ABS-M30 on a relative scale for common chemical classes. It resists water, weak acids and bases, and holds up well to petroleum fuels, petroleum greases, alcohols, engine coolant and washer fluid. Resistance is limited to motor oil, brake fluid, transmission fluid, esters, aromatic hydrocarbons and strong acids, while ketones such as acetone, halogenated hydrocarbons, phenols and silicone greases attack it.
Stratasys notes the ratings are relative rather than based on specific testing, so treat them as screening guidance and confirm them with application-specific testing before production release.
Compliance
Stratasys lists ABS-M30 as UL 94 HB at 2.5 mm, and it is not flame retardant. Aircraft interior parts that need FAR 25.853 move to ULTEM 9085.
Stratasys publishes no biocompatibility data for ABS-M30; its biocompatible FDM grade, ABS-M30i, is a separate material.
Datasheets, design guidance and supplier documentation for ABS.
Access the most recent datasheet and supporting documentation maintained by our engineering team.
ABS-M30 datasheetExplore printable geometry recommendations, wall thickness tips, and finishing playbooks for FDM.
View FDM design guide
ABS runs on industrial Stratasys FDM platforms with heated build chambers and qualified material profiles, for consistent layer adhesion and mechanical integrity from a single prototype to a full production batch.
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