Painting has always been more than just a hobby for me—it’s a form of meditation, a way to slow down and immerse myself in the present moment. From the first time I picked up a brush, I realized that painting wasn’t just about creating something visually appealing; it was about the process itself. The rhythmic motion of the brush, the blending of colors, and the quiet focus it requires have always given me a sense of peace. It became my way of practicing mindfulness, a retreat from the fast pace of everyday life.
Over the years, I’ve explored different styles and techniques, but I was always drawn to the idea of spontaneous and fluid expression—art that captures movement and energy. That’s what inspired me to design a spin art machine. I wanted to create something that not only produces vibrant and unique paintings but also can facilitate painting to anyone who like myself don't think that they're talented but enjoy painting anyway.
The spin art machine has two outputs:
-The motor which would spin the papers.
-The LEDs which will work as a decorative element.
I used TINKERCAD to simulate my circuit and make sure that the circuit I was designing is working well with no loss of components (main concern was the LED exploding).
Used A motor, mini breadboard, adaptor, jumper wires (male male and male female), crocodile clips, switch, LED (green and yellow), two resistors (330 Ohm).
5V power supply:
Reasons:
DC motors operate efficiently within a voltage range of 3V to 6V, making 5V a suitable choice for moderate speed.
Standard LEDs typically require 1.8V to 3.3V, so a current-limiting resistor can be used to safely operate them with a 5V supply.
Used Cardboard for the main structure of the spin art machine.
Used an old plastic bottle cap and an old CD for structural integrity of the spin art machine (recycling and so)
Used modeling clay for decorative reasons and also for supporting the papers that will be used for art.
Used papers (for art)
Used colours.
Designing the circuit on TINKERCAD:
1x DC Motor (responsible for the spinning of the piece of paper)
2x LED Lights (Yellow and Green)- for decorative reasons.
1x Switch (slide switch)- making sure that the circuit can be easily turned on and off.
1x 5V Power Supply
2x 330Ω (one for each LED)- to adjust the voltage and so that the LED doesn't explode.
Steps:
Power Supply: Connect the 5V power supply
Motor Circuit:
Connect the motor to the breadboard using wires.
LED Circuit:
Connect two LEDs in parallel to the motor, each with a 330Ω resistor in series. both lightbulbs are connected to the motor in parallel.
One end of each resistor connects in series to 5V, and the other end to the LED anode.
Switch:
Connect the switch in series to the power supply so it can control the whole circuit.
Connected the components of the circuit as planned on TINKERCAD.
The motor, and each LED are connected in parallel for maximum voltage.
For extra reassurance, I measured the voltage on the LED using the AVO meter
Made sure that the reading was okay and that I connected the resistors correctly
Video showing the motor working as well as the two LEDs (green and yellow)
Started by putting in a hole in the old plastic bottle cap and connecting it to the motor.
Used the glue gun to stick the old CD to the plastic cap.
Started creating this structure to ensure the stability of the DC motor without harming any of the electronic components.
Made sure that the motor was working well, and started mounting the LED into their designated space.
Mounted the switch and the adaptor.
Included all the electronic components into a box next to the main spin art machine.
Closed the box with all the electronic components.
The mechanism of accessing the components to fix or replace whatever needs replacing.
Some decorative touches.
The final product
Spin Art machine in action.
Abstract art made by the spin art machine.
While working on Week 5 assignment:
I decided to do the spin art machine earlier. However, I wasn't sure about the way to make it using simple materials. My friend "Ahmed Tallat" helped me by sharing a video of a spin art machine made from cardboard, which left me to be very confident about the whole task.
During Midweek session:
Me and Aya swapped turns in being driver and navigator while working on TINKERCAD. It was a very inspriring experience because each of us had something to offer in the connections and we left the session with way more knowledge and practice than what we entered the session with.
After assembling the circuit in the same way as TINKERCAD, the motor started working while the LED didn't at all.
I reviewed all the connections and didn't see any jumpers that weren't connected properly or working well.
I then started researching what would make a DC motor working while the LEDs aren't and I found someone suggesting on (Reddit) to review the connections of the cathode and anode.
It made sense, because the motor doesn't have to be connected in a specific way while the LEDs had to be connected to the correct electrode.
I then reviewed the connections and figured that I had swapped two jumper wires, Rewired them into the correct electrodes and then the circuit worked perfectly well.
Understanding electric circuits, particularly how to connect components in parallel, is crucial when designing an interactive learning board for visually and hearing-impaired students. A well-structured circuit ensures reliable functionality, allowing multiple interactive elements to operate independently, enhancing the user experience.
In an interactive board, multiple tactile and auditory feedback components—such as braille displays, and sound modules—must function seamlessly. Connecting these elements in a parallel circuit ensures that each component operates independently without affecting the others. This is especially important for accessibility, as a failure in one element will not disrupt the entire system.
Observing the T-slots entering to their place in the base was impressive.