Improved
Strength
Printing conventionally creates weak bonds between each layer. We print in multiple directions throughout the build to eliminate weak planes. The end result is stronger and more functional prints that access the full capabilities of FDM material options.
Better Surface Quality
Layering in only one direction creates stair-stepping texture on angled faces. With PLU5, we reduce or eliminate stair-stepping by printing each feature in whatever direction makes sense for that feature, regardless of how other areas are printed. The result is a smoother shape much closer to your design intent.
Support-less Overhangs
Horizontal layers can't be printed on top of empty space, but PLU5 isn't limited to horizontal layers. We reduce or eliminate the need for support by building parts outwards in whatever direction is best. Upwards, sideways, even inverted - all possible with PLU5.
Faster
Time-to-Part
Motion speed is important - and PLU5 moves fast - but it's not the whole picture. We focus instead on time-to-part - the total time (or effort and cost) of having your print ready to use. Using a stable, fast machine and by dramatically reducing the need for support material, we reduce your time-to-part. PLU5 not only improves print quality, but also gets you there faster and easier.
Topological Optimization
Conventional printing for functional parts is largely guesswork - you don't know if your print is going to be strong enough until after the job is done. We are employing state-of-the-art topology optimization to help you intelligently design your print to reach the performance you need.
*in development
Cutting-Edge Techniques
Conventional 3D printing is good at doing horizontal layers, but that's all it does - and all the improvements being made are incremental. With PLU5, you are on the forefront of technology. We are actively discovering and developing fundamentally new techniques, and you can join us in exploring the future.
Technical Specifications
Print Geometry
Bed Diameter
Max Build Height
Print Volume
Layer Height
Supported Materials
275 mm
250 mm
14.8 L
0.10 - 0.30 mm
All thermoplastics up to 300 °C incl. PLA, PETG, ABS, PA, PC, fiber-reinforced, and more
Motion and Control
Max Tilt Angle
Max Rotation
Mainboard
Motion Board
Stepper Motors
Motor Drivers
Sensors
Calibration and Kinematics
+/- 110°
Unlimited
Raspberry Pi
Big Tree Tech Octopus V1.1
0.9° High-Precision
Trinamic TMC2209 v1.3
Integrated 3-axis nozzle loadcell, bed and nozzle thermistors
Custom error-compensating kinematic engine, multi-step self-calibration
Print Head
Filament Diameter
Nozzle Diameter
Extruder Type
Hotend Materials
Heater Power
Max Extruder Temp.
Cooling
1.75 mm
0.4 mm (M6 interface)
Direct Drive
All-metal
40 W
300 °C
Shared Hotend and Print Fan
Print Bed
Bed Type
Build Plate Type
Build Plate Coating
Max Bed Power
Max Bed Temp.
Heated, aluminum-core, thermally-insulated bed
Magnetic swappable build plate
Textured PEI
200 W
110 °C
Interface
Display
File Transfer
12864 LCD with rotary button
USB Drive
Power and Footprint
Power Supply
Printer Dimensions
Machine Weight
400 W, 110/220 VAC
530 x 610 x 800 mm (X Y Z)
13.6 kg
