CCLanding

CLICKIN CHICKEN


A toy oven for 5 to 7-year-olds simulates cooking with UV lights changing food colors for a realistic experience.

DURATION

7 weeks

TYPE

Team

ROLES

Haiyeng - Project manager, Coder

Alyssa Suba - Researcher

Tessa Board - Documentarian

Jon Crescenzo - Designer

Overview

Fun and educational toys need to provide a compelling user experience

PROBLEM

How might we create toys that provide a compelling user experience, capturing young children's attention while encouraging their learning and development?

GOALS

The goal of the Clickin Chicken toy is to provide children with a fun and educational experience that promotes their learning and development while providing them with a unique interactive playtime experience.

Process

Created using the genius-design approach

We brainstormed ideas and researched children's toy interests for an engaging experience. The team then landed on the idea of a rotisserie-style toy. After selecting the Clickin Chicken toy, we analyzed related products, generating creative design concepts. We built a prototype using 3D printing, constructed the oven, wired the device, and coded it. Through testing and refinement, we achieved a final design. Our genius-design approach resulted in a unique toy that stands out and sparks children's imagination in the toy oven market.

Competitive Analysis

All of these toys promotes imaginative play, but do not offer an element of surprise

APrior1

Play House Mini Toaster

The Play House mini toaster consists of various play food items that children can play with and microwave. It also has buttons and sound components that look and sound like the elements in a real microwave. Despite this, the child has few opportunities to interact and engage with this toy. On the other hand, Clickin Chicken highlights UV color-changing pieces that offer an element of surprise to the toy, enhancing its potential for engagement and interaction with the child.

Play-Doh Set

This Play-Doh set stimulates kids' creativity and enables them to make food pieces using their imagination or the included stamp. The playset's parts are intended to replicate a real barbecue grill, giving an authentic play experience. Another essential feature of this playset is the food stamping feature, which gives the child a surprise element. However, this Play-Doh set does not exclude electronic hardware, which some children may find more thrilling in today's world.

APrior2
APrior3

Melissa & Doug

This toy set is designed to simulate a genuine barbecue grill, allowing children to slice and skewer their food pieces. Nonetheless, this toy lacks a surprise component, unlike Clickin Chicken, which features UV color-changing elements.

Easy Bake Oven

The Easy Bake Oven represents an engaging baking tool that fosters children's creativity and hands-on participation. This compact oven offers a safer baking experience for children, with its design tailored to their safety needs. Furthermore, Clickin Chicken shares some features with the Easy Bake Oven, such as the focus on the oven as the central component of the toy. However, it differs from the Easy Bake Oven in that it is not intended as an edible toy and does not generate heat, which could pose a safety risk for unsupervised play.

APrior4
CCWhy

So what makes Clickin Chicken better?

1. Clickin Chicken highlights UV color-changing pieces that offer an element of surprise to the toy, enhancing its potential for engagement and interaction with the child.

2. Includes electronic hardware, which some children may find more thrilling in today's world.

3. Has a surprise component which features UV color-changing elements.

4. Not intended as an edible toy and does not generate heat, which could pose a safety risk for unsupervised play.

Envisioned User Experience

Users will engage with imaginative play

Design

Sketched, coded, 3D printed and assembled

Phase 1

Our team created sketches, determined dimensions, and gathered the necessary 3D models for printing.

Challenges

One of the challenges we faced during the design process was building and designing the oven structure to accommodate various components. 3D-printed toys also needed holes for skewering, leading to unstable supports during printing.

Solution

To address these challenges, we refined the 3D-printed toys for sturdiness and child-friendly sizes. We laser-cut multiple box prototypes to find the best fit for toy food and hardware components. We incorporated a motor structure for rotisserie-style rotation.

Phase 2

Next, we worked on coding and wiring. One person coded the sensor, lights, and motor, while the other focused on sound.

Challenges

Initially, we used a pressure sensor, regular LED, and DC motor. When adding sound, the MP3 player struggled to play all the effects. Adjusting the volume helped but was inconsistent. Insufficient power to the sensor led to adding an extra power supply, which resulted in damaging the Arduino Uno and sonar sensor.

CCPhase2

Solution

To improve sensor functionality, we switched to a tilt sensor, which better triggered lights and the MP3 player. UV lights required significant power, posing a design and power source challenge. We purchased a 3.7-volt battery to run up to 44 LED light bulbs without resistors.

Phase 3

Before oven assembly, we tested all components. Once confirmed functional, we proceeded with physical product assembly.

Challenges

After placing the hardware components, we discovered that the screwed-in motor did not work. Daisy-chained LEDs malfunctioned due to wire contact and short circuits.

Solution

We removed all hardware components and drilled new holes for a different-sized DC motor. To minimize short circuits, we melted hot glue-holding LEDs and cut wires as much as possible.

Phase 4

Time to paint!

3D printed toys

To get the toy to change color, we purchased UV color changing pigment online. We tested it out with a UV lamp (for nails), to ensure it would work with UV lights.

Next, we added the pigment to white glue. We used white glue instead of white paint as the glue will dry translucent compared to the paint, which would dry opaque.

Exterior

We then painted the box in acrylic paint

Fritzing

Circuit in the oven

User Testing

Children are part of a vulnerable group

Due to limited time and users being in a vulnerable group, testing was not done for this project.

Final Design

The toys will change to different colors when they are exposed to UV light

Outcome

we have successfully developed a safe and enjoyable toy for children aged 5-7, utilizing components such as Arduino Uno, tilt switch, UV lights, DC motor, and an MP3 module. The final prototype incorporates all necessary hardware. By using UV paint and implementing a short waiting time, we aim to keep children engaged and fascinated by the color-changing process. While we were unable to conduct user testing, we have a proposed plan to involve children in the cooking process and gather feedback. We will continue to refine the design by adjusting light intensity, and motor speed, and exploring different UV paint options. Ultimately, our fully functional prototype spins and transforms the color of 3D-printed foods inside the oven.

Conclusion

Our biggest challenges were...

Incorporating the different hardware and ensuring the Arduino was able to supply enough power

If we had more time, we would...

1. Incorporate a potentiometer to control the intensity of lights and the speed of the motor

2. Experiment further with pigments and power to ensure the LEDs can effectively change the color of the 3D-printed objects within a single cooking time

3. Explore the option of using non-toxic UV paint, allowing children to paint various food items themselves

4. Develop add-ons with different food options

5. Seek IRB approval