Creating a 3D Printer from a Kit: A Step-by-Step Guide
Assembling a 3D printer from a kit can seem like a daunting task, but with the right guidance, it can be a fun and rewarding experience. In this article, we will walk through the process of building a 3D printer using a Delta-style kit.
Preparing the Electronics
The first step in assembling our 3D printer is to prepare the electronics. The kit comes with a control board, motors, sensors, and other necessary components. Before starting, it's essential to take everything out of its packaging and examine each component carefully. Next, we need to slide each sensor into a slot cut into the base plate, leaving the connector end near the front where the display is located. We then plug each motor into the control board, ensuring that the plug is facing the right direction and attached to the correct terminal. The extension wire needs to be plugged in, but it's best to leave it loose for a minute before connecting the sensor wires and the ribbon cable.
Connecting the Display Panel
Once we have the electronics sorted out, we can connect the display panel to the control board. This involves attaching the yellow and black heater wires to the terminal on the side of the board and setting those two wires aside. Next, we plug in all three limit switches, ensuring that they are securely connected. After connecting the wiring, we use zip ties to bundle everything up and manage our cabling.
Mounting the Control Board
The next step is to mount the control board underneath the printer. We use screws and standoffs (although initially, we remove them) to secure it in place. This will provide a stable foundation for our electronics.
Wiring and Cable Management
Now that the control board is mounted, we can focus on managing our wiring. We zip tie everything together to keep the cables organized, and then feed the red and black wires through Mr. Cable underneath the board. We attach the yellow and black heater wires to the terminal on the side of the board and set those two wires aside.
Attaching the Hot End
To create the hot end, we push a thermistor and heater cable into an adhesive-backed pedestal that we've secured in the center of a platform. We then slide it up through the platform and lock it into place. Next, we feed our thermistor and heater cables from the top and mount the heater with a small Allen wrench.
Assembling the Motor System
We attach nuts to the bottom of each motor shaft and screws to the side. Then, we slide these spacers and pulleys over the shafts of the motors. At each bottom bracket, we add a screw to hold spacers and pulleys in place for all three carriages. We then feed fishing line through a hole, tie a knot, and create a loop. This process is repeated on the opposite side of the carriage.
Fine-Tuning the Pulley System
The trick to this system is keeping it tight. We use scotch tape to hold everything in place while we move the pulley up and down to get the correct tension. Finally, once we've finished all three carriages, we tie another knot and remove the scotch tape.
Hiding the Wire from the Extruder
To hide the wire from the extruder, we push it into a slot on the backside of the printer and secure it with scotch tape. This will keep our cabling organized and prevent any potential damage to our printer.
Conclusion
Building a 3D printer from a kit is an exciting project that requires patience and attention to detail. By following these steps, you can create your own unique machine using the Delta-style kit. With its huge build area relative to the cost, this printer is perfect for beginners or experienced makers looking to expand their capabilities. If you have any experience with 3D printing, please share your tips and advice in the comments below.
**Technical Details**
The price of the Delta-style kit was approximately $500 when it was backed on Kickstarter.
The build area of this machine is relatively large compared to other printers in its class.
This printer uses a unique combination of mechanical and electronic components to achieve precise control over its movements.