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  • Our STEM projects are designed so that participants get it wrong before they get it right. You will observe your students struggling as they attempt to create their own STEM projects. This process is an empowering experience, building perseverance, frustration tolerance and growing overall confidence! With your support, students will step out of their comfort zones to think, build and problem-solve for themselves.
  • The Art Bot Project aligns with Virginia Science SOLs 6.2, 6.9, 7.1, 7.5, PS.11, and PS.12, providing hands-on learning about electrical circuits and energy transfer, while also prompting ethical discussions around AI and creativity. This project fosters experimentation, design thinking, and a deeper understanding of how technology and art intersect in the modern world.

Welcome to the Rosie Riveters’ Art Bot Project! This guide is designed to introduce students to the principles of electrical circuits and to spark a conversation on the ethical questions around artificial intelligence (AI). In this hands-on activity, students will build a simple robot that can create art autonomously, leading to a deeper exploration of how circuits work and who or what can be considered an artist — the machine or the engineer who built it.

How This Guide is Structured:

  1. Teacher Script for Students:
    • A ready-to-use script to explain the core concepts of electrical circuits and the ethical considerations of AI-generated art. You can read it directly to your students or modify it to fit your style.
  2. Key Concepts and Learning Goals:
    • Students will learn how to build a basic electrical circuit that powers a small motor, which drives the Art Bot to create random patterns on paper.
    • The project also opens a discussion on AI ethics, asking questions about creativity, authorship, and the role of humans in designing machines that produce art.
  3. Hands-On Building and Experimentation:
    • Students will build their Art Bots using materials like small motors, batteries, wires, and markers. The building process will teach them how electrical circuits work by creating a closed loop that powers the motor.
    • Encourage students to experiment with the design to see how different setups affect the Art Bot’s patterns and movement.
  4. Discussion and Reflection:
    • After building, guide students through a discussion on how their Art Bots work, the concept of closed and open circuits, and the basics of electricity.
    • Use reflection prompts to explore the ethical questions around AI: If a machine creates art, who is the artist? Is it the machine, or is it the person who designed and programmed it?
  5. Wrap-Up and Real-World Connections:
    • Conclude with a session that ties the project back to broader applications, such as the use of circuits in everyday devices and the growing role of AI in creative fields. Discuss how understanding circuits can lead to innovations in robotics and automation, and how ethics play a role in technology design.
Art Bot Build Guide Download

Teacher Script for Students

Today, we’re going to combine science and creativity by building our own Art Bots. But first, let’s talk about the two big ideas we’ll be exploring: electrical circuits and AI ethics.

Electrical Circuits: How the Art Bot Works

To get our Art Bots moving, we need to understand how electrical circuits work. A circuit is a path that electricity flows through. When we create a closed circuit (a complete path with no breaks), electricity can flow from the battery, through the wires, to the motor, and back again. This flow of electricity powers the motor, which will make our Art Bot move and create patterns.

In your Art Bot, you’ll be connecting a battery, wires, and a motor. When the motor turns on, it will make the Art Bot vibrate, spin, or move, and that’s how it will draw on the paper. This will give you a hands-on understanding of how circuits work and how electricity can be used to power different devices.

Experimentation: Making the Bot Unique

Now that you know the basics, it’s time to get creative! Try changing the placement of the motor, adding extra weights, or adjusting the position of the markers. See how different designs affect how your Art Bot moves and the patterns it creates. This is your chance to experiment, make mistakes, and learn from them, just like engineers do.

Ethics of AI and Art: Who Is the Artist?

Now, let’s switch gears and think about something more philosophical. Once your Art Bot starts drawing, we’re going to ask a big question: Who is the artist? The machine creating the art, or you — the person who built and designed it?

In the world of AI, this question is becoming more important. Machines are being programmed to make music, write stories, and even paint pictures. But who gets the credit for that art? Is it the machine doing the work, or the engineer who created the system that allows the machine to be creative? Let’s explore this question as we build and watch our Art Bots make their own unique pieces of art.

Wrap-Up and Real-World Connections

At the end of this project, we’ll talk about how circuits are used in everyday objects, from toys to smartphones, and how understanding them helps us design and improve technology. We’ll also dive deeper into the ethical side of things. How can we make sure that as AI becomes more capable, it’s used in ways that are fair, safe, and creative?

So, let’s get started building, experimenting, and thinking! By the end of today, you’ll have your own Art Bot that can draw, and you’ll be able to join the debate on who — or what — can truly be called an artist.

Careers and Role Models in STEM

Resource 1

Robotics Engineer Robotics engineers design and build robots that can perform tasks, from assembling products in factories to exploring Mars. They work on programming robots to carry out specific actions, as well as designing the mechanical parts that allow them to move and interact with their environment. Robotics engineers blend skills in mechanics, electronics, and computer programming.

Resource 2

Dr. Cynthia Breazeal, Robotics Engineer Dr. Cynthia Breazeal is a robotics engineer and a pioneer in the field of social robotics. She developed one of the world’s first social robots, Kismet, which could interact with humans through expressions and movement. Dr. Breazeal’s work explores how robots can engage with people in creative and meaningful ways, blending technology with art. Her innovations have laid the groundwork for robots that assist in education, healthcare, and the arts, demonstrating how robotics can be used not just for utility but also for creative expression.

Cynthia Breazeal - keynote speaker - Global Speakers Bureau