9. Wearables¶
Research¶
References & Inspiration¶
I had the idea to create a bodysuit with integrated lighting features. My vision was to design one version where the sleeves would be equipped with a dynamic lighting setup, adding a captivating visual effect to the upper body. Additionally, I wanted to develop a second variation where the lighting would be incorporated into the legs, providing a unique and eye-catching illumination for the lower half of the outfit. This concept aims to blend fashion with technology, creating a striking and innovative piece of wearable art.
Code Example¶
Process and workflow¶
I decided to revisit an older piece of code that I had originally developed for my FabAcademy final project. The goal was to expand upon it, enhancing its functionality and making it more versatile. By integrating additional functions and refining the existing structure, I aim to improve its performance and adaptability for new applications. This process not only allows me to build on previous work but also provides an opportunity to deepen my understanding of the code and explore new ways to optimize and innovate.
Parts¶
- Name - Quantity
- XIAO ESP32-C3 - 1x
- switch - 1x
- Resistor (0 ohm) - 3x
- Header Pin cnnector Female 1x3 - 6x
- Header Pin cnnector Female 1x7 - 2x
Parts add on¶
- Name - Quantity
- LilyPad LED Blue- 3x
- touch sensor - 1x
- wire- 2x
Step 1¶
This is an experiment designed to assess the compatibility and functionality of LED lights for my project. Specifically, I focused on testing the Lilypad LED lights to determine how well they integrate with the rest of the system. By conducting this test, I aim to evaluate their performance, responsiveness, and overall suitability for the intended application. Through this process, I also hope to identify any potential challenges or adjustments needed to ensure seamless operation within the design.
Step 2¶
I added additional connectors to the existing circuit board to expand its capabilities. To ensure proper functionality, I carefully soldered the wires in place, creating secure connections for the lights. Now, the setup includes a touch sensor that acts as the primary control for running the program. My plan is to strategically position this sensor in a location that is both discreet and easy to access. This placement will allow the user to activate the system conveniently while minimizing the risk of accidental activation. By integrating these enhancements, I aim to improve both the usability and reliability of the overall design.
The design plan focuses on integrating the LED lights directly onto the bodysuit, while securely housing the controller and circuit board within it. This approach is both intentional and practical, as it ensures that the costume can be cleaned and maintained easily without compromising the functionality or safety of the electronic components. By strategically separating these elements, the system retains its functionality while emphasizing durability and user convenience.
To enhance the aesthetic appeal, I plan to embellish the costume with rhinestones. These will interact with the LED lights, catching and reflecting the illumination to create a more subtle and dynamic visual effect. This added detail elevates the design, blending the technological aspect with a touch of elegance.
In addition, the wings will be carefully concealed beneath the costume, positioned over the bodysuit. This placement ensures that they remain hidden until revealed, contributing to a seamless and cohesive look. These thoughtful design choices are part of a broader effort to refine the project, ensuring a harmonious integration of technology, fashion, and functionality. This stage of experimentation is vital for bringing the concept to life in a polished and impactful way.
Step 3¶
This picture illustrates the mechanism by which the wings are attached to the costume and how they extend outward. The design ensures that the wings can be easily deployed or detached without requiring the entire costume to be removed. This thoughtful attachment system not only simplifies the process of putting on and taking off the costume but also enhances its functionality and user convenience.
By focusing on ease of use, this design accommodates quick adjustments, making the wings highly practical for performances or events. The detachable mechanism ensures that the costume remains versatile and durable, allowing for seamless integration of the wings without compromising the overall aesthetic or structural integrity of the outfit. This approach highlights the balance between practicality and innovation, making it an essential feature of the overall design.
-Fab Academy 2024 Video Presentation.
Extra¶
Initially, my plan was to incorporate a Lilypad microcontroller into the project, so I designed and 3D-printed a custom board that would allow it to be attached securely using snap-fit connectors. To facilitate this, I modified an existing design file from Thingiverse to create a connecting unit that suited my specific requirements. Using Tinkercad, I was able to customize and refine the unit to ensure it would integrate seamlessly into the overall setup.
However, during testing, I encountered difficulties in getting the board to function as intended. Despite several troubleshooting attempts, I realized that this approach was not viable for my project’s needs. Ultimately, I decided to abandon the plan and explore alternative solutions. Although this was a setback, the process was a valuable learning experience and provided insight into the complexities of integrating hardware into wearable designs.
Even though the plan was scrapped, the modified connecting unit remains a useful asset, and the design I created could be repurposed for future projects or shared with the maker community. This experience underscored the importance of flexibility in the design process and the value of iterative problem-solving in achieving successful outcomes.
LilyPad Arduino USB - ATmega32U4 Board_Holder
notes
- I burn out the XIAO ESP32-C3 while testing.