Developed as an uncompromising alternative to off-the-shelf consumer kits, this machine represents a masterclass in custom mechanical engineering and bespoke open-source programming. Controlled entirely by an open-source, custom-tailored programming configuration written specifically for this hardware topology, it provides deep insight into micro-controller communication, kinematic math, and real-time process control ideal for advanced technical education.
Comprehensive Technical Specifications
System Classification
Fully Enclosed, Custom-Programmed Commercial-Grade CoreXY Production & Educational Platform
Open-Source Programming
Bespoke open-source firmware configuration written and optimized exclusively for this machine's exact kinematic layout, custom macro routines, thermal safety algorithms, and closed-loop feedback loops.
Chassis & Frame Engineering
Ultra-rigid, un-twistable frame constructed from 4x 2040 Z-beams and 16x 2020 extrusions integrated into 8x 2040 interlocking members. Reinforced with heavy-duty ABS printed corner brackets and secured by 21 M5 high-tensile bolts with Misumi slot-in T-slot nuts per corner, yielding structural rigidity comparable to high-specification industrial CNC systems.
Build Platform & Bed Assembly
Precision-milled MIC6 350mm x 350mm x 8mm tooling plate paired with a 350mm x 350mm spring steel sheet secured via a high-performance magnetic top surface. Supported by heavy-duty Z-drive brackets with industrial GE5C spherical bearings and custom waffle-pattern TPU pads to isolate and absorb high-frequency vibration distributions.
Thermal & Enclosure Management
Fully enclosed thermal chamber engineered for high-temperature engineering-grade materials processing, equipped with 2x recirculating activated carbon filter fans for active chamber air filtration. Powered by a 750W 230V silicon build plate heater governed safely by a 24V signal through an iAutoc 25A solid-state relay (SSR) featuring an integrated 135°C safety thermal fuse.
Processing & Core Control
Powered by a Raspberry Pi 5 (4GB) running custom-configured open-source host software, communicating with a BigTreeTech Octopus Pro v1.1 H723 (550MHz MCU) motherboard utilizing 6x TMC2209 stepper drivers operating in silent UART mode.
Toolhead & Extrusion Mechanics
Decentralized H36 toolhead board controlling printhead electronics via reliable CAN-bus architecture from the main MCU. Equipped with a Phaetus Rapido v2 Ultra High Flow hotend and a dual-stage dual-gear direct-drive extrusion system designed for maximal filament grip and torque.
Motion Kinematics & Gantry
Driven by LDO Speedy Power XY motors on a carbon-fiber reinforced ASA monolithic gantry. Linear motion is governed by a precision single MGN12H rail on the X-axis, dual MGN9H rails on the Y-axis, and quad MGN12H rails on the Z-axis, featuring upgraded GE5C spherical Z-joints for zero-binding vertical motion.
Calibration & User Interface
Integrated Cartographer Eddy Current Sensor for ultra-fast, high-precision non-contact bed mapping, managed through an intuitive 5-inch touchscreen control console.
The Institutional Educational Pipeline
01. Open-Source Custom Code
Analyzing bespoke configuration files, pin mapping, macro programming, and firmware compilation specific to custom hardware arrays.
Exploring chamber thermodynamics, air filtration safety via dual carbon filter fans, and processing parameters for high-temp thermoplastics (ASA-CF).
Key Engineering Highlights
Proprietary open-source software configuration tailored explicitly to run this machine's exact kinematic layout, providing students with pure transparency into machine-level programming.
Commercial-grade structural integrity featuring an 8mm thick precision-milled MIC6 tooling plate and 750W high-power heating elements equipped with thermal fuse safety backups.
Un-twistable, high-rigidity frame architecture featuring interlocking 2040 profiles, heavy-duty ABS brackets, and Misumi hardware comparable to CNC industrial standards.
Fully enclosed thermal chamber equipped with dual recirculating activated carbon filter fans, optimized for safe, high-temperature engineering-grade material processing.
Advanced distributed control architecture combining a 550MHz Octopus Pro MCU, Raspberry Pi 5, and clean CAN bus toolhead routing.
Phase 1: Initial Setup & V1 Test Mule Gallery
Exploring the early framework, initial dry-fits, and baseline hardware testing phases.
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01. 270 Degree Doors Hinges
Initial mechanical build phase and framework alignment.
02. A Drive Motor Mount Printed
Initial mechanical build phase and framework alignment.
03. B Drive Motor Mount
Initial mechanical build phase and framework alignment.
04. B Drive Motor Mount Rear
Initial mechanical build phase and framework alignment.
05. Bottom Frame With MCU Board Mountings
Initial mechanical build phase and framework alignment.
06. Bottom Panel Fitted
Initial mechanical build phase and framework alignment.
07. Buildplate Fitted
Initial mechanical build phase and framework alignment.
08. Cable Chain Fitted
Initial mechanical build phase and framework alignment.
09. Canbus Board Upgrade
Initial mechanical build phase and framework alignment.
10. Control Interface Testing
Initial mechanical build phase and framework alignment.
11. Dual Color Toolhead Cover
Initial mechanical build phase and framework alignment.
12. Dual Color Toolhead Cover Completed
Initial mechanical build phase and framework alignment.
13. Enclosure Fitted
Initial mechanical build phase and framework alignment.
14. First Bench Test
Initial mechanical build phase and framework alignment.
15. First Test Print XY Axis Angle
Initial mechanical build phase and framework alignment.
16. First Test Print Y Axis Side
Initial mechanical build phase and framework alignment.
17. Frame Completed Bottom Side With Z Drives
Initial mechanical build phase and framework alignment.
18. Frame Design CAD Drawing
Initial mechanical build phase and framework alignment.
19. Frame With Gantry Mounted
Initial mechanical build phase and framework alignment.
20. Frame With Z Axis Components Mounted
Initial mechanical build phase and framework alignment.
21. Front Of Complete Frame Assembly
Initial mechanical build phase and framework alignment.
22. Full Frame Demostrating Interlocking Sections
Initial mechanical build phase and framework alignment.
23. LCD Control Converted From Old Android Phone
Initial mechanical build phase and framework alignment.
24. Light Weight Toolhead And Canbus Installed
Initial mechanical build phase and framework alignment.
25. Light Weight Toolhead Upgrade
Initial mechanical build phase and framework alignment.
26. Modified Android Phone Touchscreen Control
Initial mechanical build phase and framework alignment.
27. Printing Motor Mount
Initial mechanical build phase and framework alignment.
28. Recirculating Dual Fans Carbon Filter
Initial mechanical build phase and framework alignment.
29. Toolhead Assembly And Wiring
Initial mechanical build phase and framework alignment.
30. Toolhead Assembly Fitted
Initial mechanical build phase and framework alignment.
31. Toolhead Leveling Sensor Mounted
Initial mechanical build phase and framework alignment.
32. Top Frame With Corner Brackets
Initial mechanical build phase and framework alignment.
33. Top Mounted Web Cam
Initial mechanical build phase and framework alignment.
34. Top And Bottom Frame Assembly
Initial mechanical build phase and framework alignment.
35. Under Side Electronics Fitted
Initial mechanical build phase and framework alignment.
36. X Carriage With Toolhead Mount Fitted
Initial mechanical build phase and framework alignment.
37. X Carraige With Belts Fitted
Initial mechanical build phase and framework alignment.
38. Z Axis Gearbox
Initial mechanical build phase and framework alignment.
39. Z Axis Gearbox Printed
Initial mechanical build phase and framework alignment.
40. Z Axis Gearbox Rear
Initial mechanical build phase and framework alignment.
Phase 1: Engineering Build Videos
Motion logs and diagnostic testing footage from the initial test mule assembly.
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01. First Test Print
Phase 1 hardware test footage and kinematic response log.
02. Resonance Calibration
Phase 1 hardware test footage and kinematic response log.
03. Toolhead LED Installed
Phase 1 hardware test footage and kinematic response log.
04. Toolhead LED Testing
Phase 1 hardware test footage and kinematic response log.
Phase 2: The Monolith Upgrade Gallery
Documenting the structural overhauls, custom ASA-CF gantry parts, GE5C Z-joints, and commercial-grade integration.
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01. CFGantry
Monolith gantry installation, GE5C joint alignment, and calibration stage.
02. Carbon Fiber Filled ASA Monolith Gantry
Monolith gantry installation, GE5C joint alignment, and calibration stage.
03. Frame Design
Monolith gantry installation, GE5C joint alignment, and calibration stage.
04. Front Idler With Double Shear Live Shaft Idler
Monolith gantry installation, GE5C joint alignment, and calibration stage.
05. Motor Drive With Double Shear Live Idler
Monolith gantry installation, GE5C joint alignment, and calibration stage.
06. Reinforced Z Drive Mount CAD Drawing
Monolith gantry installation, GE5C joint alignment, and calibration stage.
07. Reinforced Z Drive Mount CAD Drawing Inner Side
Monolith gantry installation, GE5C joint alignment, and calibration stage.
08. Reinforced Z Drive Mount Installed
Monolith gantry installation, GE5C joint alignment, and calibration stage.
09. XY Axis Joint
Monolith gantry installation, GE5C joint alignment, and calibration stage.
10. Z Axis Rail Joint With GE5C Bearing
Monolith gantry installation, GE5C joint alignment, and calibration stage.
Phase 2: Monolith Upgrade Videos
High-speed testing, closed-loop telemetry, and operational stress logs.
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01. 9Mins 17sec Asa Benchy Vs Off The Shelf 1 Hour PLA Print
Phase 2 high-performance stress test and operational footage.
02. Printing New Z Drive Mount
Phase 2 high-performance stress test and operational footage.
03. Printing TPU Damper
Phase 2 high-performance stress test and operational footage.
04. Printing Z Drive Mount
Phase 2 high-performance stress test and operational footage.
Institutional Workshops & Educational Programs
What educational value do EIR3D school workshops provide?
Our workshops provide students with direct exposure to professional mechatronics, open-source programming, CAD design integration, electrical engineering safety, and high-performance manufacturing principles using commercial-grade machinery rather than simplified consumer kits.
What specific curriculum topics are covered during a session?
Sessions cover the complete engineering lifecycle: open-source firmware customization, structural mechanics, firmware tuning, high-voltage relay wiring safety, sensor integration (eddy current leveling), and advanced polymer material science.
How can educational institutions commission a workshop or demonstration?
Schools and technical training institutions can contact us directly via our booking page or email us at info@eir3d.com to arrange tailored curriculum demonstrations and workshop packages.