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Core thermal hardware and build-surface systems designed for ultra-performance polymers.
Delivers stable, high-temperature melt flow for ultra-performance polymers.
Slice Engineering Copperhead hotends; LGX Pro dual-gear extruders; extruder temp 500°C.
Enables melting and extrusion of PEEK/PEKK/PAEK-class materials.
Resists wear from abrasive, fiber-filled filaments while preserving nozzle geometry.
Hardened steel 0.4 mm included; alternative nozzle options available.
Maintains consistent extrusion when using carbon/glass-filled high-temp filaments.
Provides elevated bed temperatures to reduce thermal gradients and improve first-layer bonding.
Build plate temp 200°C.
Critical for adhesion and reduced warping of engineering polymers like PC and high-temp nylons.
Maintains elevated ambient temperature to reduce thermal stress and support correct polymer crystallization.
Chamber temp 100°C.
Enables proper crystallization and layer bonding for PEEK/PEKK.
Gantry, rails, motors and bed systems designed for repeatable, low-backlash motion and fine feature work.
Provides structural stability and thermal mass to prevent frame shift under high operating temperatures.
Welded steel chassis.
Maintains dimensional stability during long high-temp prints, improving part accuracy.
Delivers repeatable, low-backlash motion for high positional accuracy and surface finish.
Linear rails; silent Trinamic drivers; 12mm Kevlar belts.
Enables fine-feature accuracy on tough polymers where precision matters.
Distributed motor drive and multiple Z motors produce consistent gantry squaring and reliable bed leveling.
Quad X/Y motors; triple Z motors; self-squaring X/Y gantry.
Consistent first layer and reduced layer shifting for demanding thermoplastics.
High-precision positioning enables fine detail and tight tolerances in printed parts.
X/Y: 10 µm; Z: 7 µm; layer resolution 40–500 µm; positional repeatability 125 µin/axis.
Produces tight-tolerance components required in aerospace and medical applications.
Physically levels the bed before prints for repeatable first-layer adhesion without manual adjustments.
3 Z-axis motors; servo-docked leveling sensor; adaptive multi-point mesh leveling.
Ensures optimal bed contact and reduces warping for semi-crystalline polymers.
Capable of high traverse speeds for reduced non-print time while supporting material-specific print speeds.
Max travel 500 mm/s; high-temp print speeds 30–200 mm/s.
Allows optimized print strategies to balance throughput and thermal control for high-temp polymers.
IDEX-specific hardware and multi-tool registration for multi-material or mirrored production modes.
Automated probe aligns dual toolheads to eliminate manual calibration prints and ensure precise multi-tool registration.
Automated XY alignment probe; supports IDEX modes.
Improves multi-material and soluble-support accuracy, critical for complex high-temp assemblies.
Hardware prepared for advanced non-planar toolpaths, enabling more complex surface geometry printing.
6 independent axes; 5 degrees of freedom.
Supports future multi-axis strategies to reduce support and improve surface integrity of high-temp parts.
Elements that affect adhesion, part size and the overall build environment.
Large, thermally-stable build surfaces allow printing of large, functional parts with secure adhesion.
350 × 350 × 450 mm build volume; high-temp carbon fiber build plate and borosilicate included.
Supports large-format PEEK/PEKK parts with minimized warping.
Continuously removes particulates and volatile byproducts to maintain a controlled build environment and minimize contamination.
Built-in HEPA + active carbon filtration; optional 2" inlet/outlet for external extraction.
Reduces contamination and odor during high-temp prints, supporting cleaner PEEK/PEKK processing.
Storage, drying and monitoring features that protect sensitive, high-temp filaments.
Stores and dries filament in-chamber during prints to prevent moisture-related defects.
Chamber filament storage; active drying while printing.
Prevents hydrolysis and voids in hygroscopic high-temp nylons and PEEK-family materials.
Detects runout and helps avoid failed prints by pausing or alerting operators.
Filament runout sensors; remote monitoring via web interface.
Reduces waste and print failures on long high-temp jobs that consume significant material.
No vendor material lock — supports third-party and specialty filaments for flexibility.
Standard 1.75 mm filament; fully open material system.
Allows use of certified PEEK/PEKK grades and optimized formulations from material suppliers.
Control boards, web interfaces and preconfigured profiles for repeatable workflows.
Reduces setup time with tested profiles and provides full control via Duet web interface and standard slicers.
PrusaSlicer profiles; Duet 3 web interface; Ethernet + modular Wi-Fi; RepRap-compatible firmware.
Speeds material validation and repeatable parameterization for PEEK/PEKK families.
Electrical, safety systems and certifications required for production-grade high-temperature operation.
Detects overheating/thermal runaway and cuts power to protect machine and parts.
Overheat & thermal runaway protection; optional auto shutoff; quality German wiring.
Mitigates fire/thermal risk when operating at 500°C extruder temperatures.
Meets industrial safety expectations and uses high-quality wiring to reduce electrical faults.
CE certification; German-manufactured wiring; solid state relays.
Increases operational safety when running equipment at elevated temperatures and power.
Warranty, service, and future expandability options to protect uptime and enable upgrades.
Standard warranty and optional extended plans protect investment and uptime.
1-year limited warranty standard; premium/extended available.
Provides commercial buyers assurance when qualifying the machine for critical material workflows.
Join the ranks of satisfied customers who have successfully integrated the 22 IDEX 3D Printer into their workflows. Contact us today to learn more about how this advanced printer can meet your specific needs.
