FibreSeek FibreSeeker 3 – personal 3D printer with continuous fiber

Main advantages for users

• Strength like metal, weight like carbon Continuous carbon fiber in a plastic matrix provides tensile strength up to 900 MPa – more than double that of common 6061 aluminum alloy – at roughly half the weight.
• Dual-nozzle system: CFC + FFF Two independent extruders – one for classic filaments, the second for continuous fiber coextrusion. In one part, you can combine:
  • base material (PLA, PETG, PA, PC, ABS etc.)
  • continuous carbon or glass fiber
  • optionally also support/soluble material
• Three intelligent printing modes Cover a wide range of tasks with a single machine:
  • High Speed Mode – high-speed FFF printing up to 500 mm/s for fast prototypes
  • High Strength Mode – balanced ratio of speed and fiber reinforcement
  • Hyper Strength Mode – maximum proportion of continuous fiber for extremely stressed parts
• Large build volume in a compact body The build space of 300 × 300 × 245 mm offers the possibility to print large functional parts (arms, holders, fixtures, reinforcements) without splitting into multiple parts.
• Enclosed chamber and high temperatures The enclosed print space stabilizes the temperature for engineering plastics. The printer reaches:
  • nozzle temperature up to 320 °C (plastics)
  • specialized fiber nozzle up to approx. 350 °C (according to manufacturer)
  • heated bed up to 110 °C This enables reliable printing of PA, PC, ABS, PACF, PETGF and other composites.
• Smart lattice infill Special composite lattice infill places the fiber only where it is needed. Parts are:
  • strong in critical areas (holes, transitions, silent blocks)
  • lighter and more economical on material where full strength is not required
• Precision and speed for everyday use
  • declared accuracy up to ±0,05 mm thanks to active vibration compensation
  • standard layers from 50 μm
  • fiber tension sensors, breakage and clog detection
• Aura Slicer & AI monitoring Proprietary Aura Slicer Suite software automatically calculates fiber paths and optimizes the part structure:
  • pre-set templates (print mode, lattice infill type, density)
  • view of material and fiber distribution in cross-sections
  • remote supervision using an integrated HD camera with AI error analysis

Typical uses for FibreSeeker 3

• Robotics and automation Sensor holders, grippers, mounting fixtures, manipulator arms, parts for collaborative robots.
• Automotive / motorsport Mounting brackets, pedals, levers, hinges, cable and hose holders, suspension components for RC models and test prototypes.
• Drones and UAV Multicopter frames, arms, reinforcements, hardpoints for camera mounting, gimbal parts.
• In the workshop and production Fixtures, templates, clamps, mounting blocks, jigs, replacements for milled aluminum parts.
• Education and R&D Educational projects on the topic of composite structures, topological optimization, assembly and strength prototypes.

Key features of FibreSeeker 3

• Printing technology: FFF + CFC (Composite Fibre Coextrusion)
• Dual-nozzle system: one extruder for plastic filament, the second for continuous fiber
• Max. part strength: up to 900 MPa in tension (according to manufacturer)
• Three print modes: High Speed, High Strength, Hyper Strength
• Large build volume: 300 × 300 × 245 mm
• FFF print speed: up to 500 mm/s (declared)
• Minimum layer height: from 0,05 mm (50 μm)
• Enclosed chamber: stable environment for engineering plastics
• Heated bed: up to 110 °C, automatic leveling
• Max. nozzle temperature: up to 320 °C for plastic, special fiber nozzle up to approx. 350 °C
• Active vibration compensation: higher precision at high speeds
• Sensors and safety: fiber breakage detection, flow monitoring, print watchdog
• Integrated HD camera: remote print supervision, AI error recognition
• Supported materials (plastic): PLA, PETG, PA (nylon), PACF (nylon with carbon fiber), PETGF (PETG with glass fiber), PC, ABS and others
• Supported continuous fiber: carbon fiber (Carbon Fibre), glass fiber (Fiberglass), proprietary FibreSeek composite fibers
• Software: Aura Slicer (Windows / macOS), support for STL, STEP/STP, 3MF
• Connection: local network / USB (according to manufacturer configuration)
• Target audience: makers, small and medium enterprises, prototyping workshops, schools, universities, design offices

Why include FibreSeeker 3 in your 3D printing workshop

• Significantly lower price for continuous fiber compared to industrial systems – suitable even for smaller companies and schools.
• Replacement for milled aluminum parts in fixtures and single-purpose equipment.
• High-speed FFF mode allows common plastic prototypes to be printed much faster than on standard desktops.
• One machine handles the prototype, tested piece, and final functional part – significant reduction in time from design to usable product.

Package contents (typical configuration)

• 3D printer FibreSeek FibreSeeker 3
• Maintenance tool set
• Basic starter set of filaments and continuous fiber (according to manufacturer packaging)
• Power cable
• User documentation (online / PDF)

Note: Exact accessories and configurations may vary by specific edition and campaign. Always verify the current specification in the product detail on our e-shop before ordering.

Key features:

• Continuous carbon and glass fiber for parts with strength up to 900 MPa
• Dual-nozzle system: combination of FFF printing and CFC coextrusion in one machine
• Large build volume 300 × 300 × 245 mm in a compact desktop design
• Three intelligent modes (High Speed, High Strength, Hyper Strength) for speed or maximum strength
• Enclosed chamber, nozzle temperature up to 320 °C and bed up to 110 °C for engineering materials
• Special composite lattice infill for ideal strength / weight / material consumption ratio
• Active vibration compensation with accuracy up to ±0,05 mm even at high speeds
• Integrated HD camera and AI print monitoring for early error detection
• Proprietary Aura Slicer with automatic fiber path optimization and STL/STEP/3MF support
• More affordable price for continuous fiber compared to industrial composite systems