Need help?Do you have a question about the IMade3D JellyBOX 2 and is the answer not in the manual?
Assemble initial laser-cut acrylic frame pieces for the 3D printer build.
Identify electronic components and their labels on acrylic panels.
Prepare left and right side panels, noting etching changes for window areas.
Prepare the front panel, including features like the 'Big Friendly Button'.
Assemble pre-defined sections of the acrylic frame, showing how pieces fit together.
Connect assembled frame sections using fasteners or zip ties.
Secure the frame joints using zip ties as shown in visual guides.
Prepare a specific acrylic piece, likely for the base or internal structure.
Attach a pre-assembled or prepared internal structure component to the frame.
Secure the internal structure to the main frame, likely using zip ties.
Perform final connections on the main frame structure, possibly adding reinforcing elements.
Orient and connect additional acrylic panels to the existing frame structure.
Attach the side panels to the frame, securing them with zip ties.
Secure the last major frame components, likely using zip ties for stability.
Finalize the basic frame assembly by securing all previously attached components.
Add subsequent layers or structural elements to complete the basic frame build.
This document outlines the steps for building the basic frame of a device, likely a 3D printer given the "IMADE3D" branding and references to components like "filament," "heat block," "motors," "drivers," and "thermistors." The device appears to be a modular, open-source 3D printer designed for ease of assembly and maintenance, as suggested by the clear acrylic panels and visible internal components. The frame itself is constructed from laser-cut acrylic pieces, which are assembled using zip ties and interlocking tabs.
The device, identified as the "JellyBOX 2" model, is a 3D printer. Its primary function is to create three-dimensional objects from digital designs by extruding heated thermoplastic filament layer by layer. The clear acrylic frame allows for full visibility of the printing process, which can be beneficial for monitoring progress, troubleshooting, and educational purposes. The internal layout, with clearly labeled sections for various electronic components (Raspberry Pi, Arduino, motor drivers, power supply, voltage converter), indicates a sophisticated control system capable of precise movements and temperature regulation necessary for 3D printing. The presence of "X, Y, Z end stops" confirms its ability to control motion along three axes, a fundamental requirement for additive manufacturing. The "filament" and "D10 heat block" labels point to the extrusion system, where the raw material is melted and deposited. The "thermistors" are crucial for monitoring and maintaining the precise temperatures required for melting the filament and, potentially, for a heated print bed (though not explicitly labeled, it's a common feature). The "fan" is likely used for cooling specific components, such as the hot end or the printed object itself, to ensure proper solidification.
The design emphasizes user-friendliness and accessibility. The clear acrylic panels not only offer aesthetic appeal but also provide an unobstructed view of the internal workings, which is invaluable for users learning about 3D printing or needing to diagnose issues. The modular construction, evident from the step-by-step assembly guide, suggests that individual components can be easily accessed, replaced, or upgraded. The frame's structure, with various cutouts and etched labels, guides the user in correctly positioning and connecting electronic components. For instance, dedicated spaces for the Raspberry Pi and Arduino, along with labels for motor drivers (E, X, Y, Z), end stops, and thermistors, simplify the wiring process. The "BIG FRIENDLY BUTTON" suggests a prominent and easy-to-use power or control interface. The inclusion of an SD card slot indicates that print files can be loaded directly onto the device, allowing for standalone operation without constant computer connection. The "support: www.imade3d.com" and "model: JellyBOX 2" etchings on the bottom panel provide clear identification and access to support resources, enhancing the user experience. The use of zip ties for assembly, while seemingly simple, offers a secure and flexible method for holding the frame together, and can be easily undone for disassembly or modifications. The "voltage converter" and "power supply" labels indicate that the device handles its own power management, likely accepting a standard input and converting it to the necessary voltages for its internal electronics.
The transparent and modular design of the JellyBOX 2 frame significantly aids in maintenance and troubleshooting. Because all internal components are visible through the acrylic panels, users can quickly identify loose connections, damaged wires, or malfunctioning parts without having to disassemble opaque enclosures. The use of zip ties for assembly means that the frame can be easily taken apart and reassembled if internal access is required for repairs or upgrades. The etched labels for each electronic component (motors, drivers, thermistors, Raspberry Pi, Arduino, power supply) make it straightforward to identify and replace specific parts. For example, if an X-axis motor driver fails, its location is clearly marked. The open-frame design also allows for better air circulation, which can help prevent overheating of electronic components, thus extending their lifespan. In case of a component failure, the modular nature suggests that individual parts can be swapped out rather than requiring a complete system replacement. The "Erratum" notes regarding the side windows and etchings highlight an iterative design process, implying that the manufacturer is responsive to user feedback and continuously improves the device, which can lead to better long-term maintainability. The ability to see the filament path, the hot end, and the print bed during operation allows for easy detection of common printing issues like clogs, misalignments, or bed leveling problems, enabling prompt corrective action.
General| Layer Resolution | 50 - 300 microns |
|---|---|
| Nozzle Diameter | 0.4 mm |
| Filament Compatibility | PLA, ABS, PETG, TPU |
| Print Speed | 100 mm/s |
| Connectivity | USB, SD Card |
| Frame Material | Aluminum |
| Filament Diameter | 1.75 mm |
| Max Nozzle Temperature | 260°C |
| Max Bed Temperature | 100 °C |
| Power Supply | 24V |
| Dimensions | 450 x 450 x 500 mm |
| Display | LCD |
To Next Page