Ozobot Classroom

Lesson Creator

  • Preparation
  • Direct Instruction
  • Student Practice
  • Supplements
  • Review

1. Tell Us About Your Lesson

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A. Lesson Overview


Students will

B. Lesson Details

Lesson Duration (minutes)The time (minutes) to complete the whole lesson.

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Subjects/TopicsChoose the most relevant subject(s). Select up to 3.


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    2. Preparation

    This helps the teacher prepare for the lesson before the class session

    A. Student Materials

    B. Background Knowledge (Optional)

    C. Lesson Tips (Optional)

    Add tips for the educator that don't fit into Direct Instruction or Student Practice. You can always return to this page to add more.

    This lesson is part of the Ari Applied AI Career Kit curriculum and is designed to be taught using the kit materials.

    For more information on getting started with Ari, visit https://ozobot.com/pages/ari-resources

    3. Direct Instruction (Teacher-Facing Instructions)

    These are the steps the educator will read. Include any front loading, modeling or explicit instruction before students work independently or in groups.

    Instruction

    Industry Brief (30 minutes)

    Present the AI in the Field: Agriculture slide deck and introduce the real-world AI application.

    How is AI used in Agriculture?

    Begin by discussing the challenges farmers face when monitoring crops. Ask students:

    • What challenges might a farmer face when trying to monitor a large field of crops?
    • Why might it be difficult for a human to inspect every crop individually?
    • How could technology help farmers gather information about their crops more efficiently?

    Explain that many farms use AI crop monitoring systems to check crops across large fields. These systems help farmers quickly identify crop health such as: healthy, dehydrated, dead.

    • Help students distinguish between Input → Processing → Output → Action.

    Input - The farmer sets up and programs the AI system by choosing what it should detect and provide crop images or sensor data for analysis.

    Processing - The AI system uses cameras and sensors to capture images of crops and analyze visual patterns such as color, shape, or texture to detect crop health.

    Output - The AI outputs a classification describing the crop’s condition, such as healthy, dehydrated, or dead.

    Action - The program uses that output to trigger a response, such as flagging crops for attention, recording crop health data, or guiding equipment to specific areas of the field.

    AI Systems and Human Decision-Making

    Explain that AI crop monitoring systems can help farmers quickly identify patterns and understand what is happening across large fields. However, AI systems do not replace human decision-making. Farmers still need to review the information, interpret the results, and decide what actions should be taken.

    Ask students:

    • What decisions should still be made by the farmer instead of the AI system?
    • Why is it important for humans to review and interpret AI outputs?
    • What could happen if a farmer relied only on AI predictions without human oversight?

    Instruction

    Explain the Challenge (10 minutes)

    Show the agriculture mat and crop cards. Introduce the scenario and explain the AI system students will build across the module.

    Scenario: A farmer has noticed that some crops are not growing well but is unsure why. Some are healthy, some are dehydrated, and some are dead. The farmer needs a way to quickly monitor crop health across the field. Students will build an AI-powered crop monitoring system using Ari to simulate an agricultural monitoring drone that moves through the field, captures images of crops, and identifies their health. Using this information, the system can help the farmer locate unhealthy crops and decide what actions may be needed.

    What Students Will Build Across the Module

    Lesson 2 - Sensor Data Collection

    Students use Ari’s ToF sensor and Compass App to measure and map crop fields by collecting distance and directional data for each plot.

    Lesson 3 - Using AI for Crop Navigation

    Students use AI to identify a specific crop condition and use the output to guide Ari to the correct crop location.

    Lesson 4 – Building an AI Data Collection System

    Students expand their system to identify crop conditions and locations, then record and organize the collected data.

    Lesson 5 – Designing an AI Crop Monitoring System

    Students build a complete system that scans the entire field, identifies crop conditions, and collects data across all crop locations.

    Lesson 6 – AI System Capstone

    Students analyze the data collected by their crop monitoring system and evaluate how effectively it identified and monitored crop conditions.

    Clarify Success Criteria

    A successful AI crop monitoring system will:

    1. Detect crop conditions using camera input
    2. Output accurate classifications (healthy, dehydrated, dead)
    3. Use outputs to guide Ari’s movement and behavior
    4. Collect and organize data about the field

    Instruction

    Group Exploration (25 minutes)

    Have students turn to Module 2, Lesson 1 in their Field Notebooks and begin on the AI System Framework page. They will use this page to record their work throughout the lesson.

    Students will research and select two AI systems in agriculture and complete a chart for each.

    • Students should use this information to refine their system design and better understand how AI crop monitoring systems work in real environments.

    Suggested research questions include:

    1. How is artificial intelligence used in agriculture?
    2. What tasks do agricultural robots or AI systems perform?
    3. What kinds of data do AI systems collect when monitoring crops?
    4. How do cameras and sensors help farmers understand crop health?
    5. What technologies help farmers detect crop diseases or dehydration?

    Designing Your AI System

    Give students the Agriculture Mat and Crop Cards. Display the planning questions for students to reference as they work and take notes in their Field Notebooks. Students should discuss:

    • What problem is your agricultural AI system designed to help solve?
    • How will Ari move throughout the fields?
    • What crop conditions or visual patterns will the AI system detect?
    • What information or data will the system need to collect?
    • How should the system respond to different crop conditions?

    Instruction

    Exit Ticket - Explain Your Thinking (10 minutes)

    Conclude the lesson by presenting the “Explain Your Thinking” question and having students independently complete a written response in their Field Notebook.

    Explain Your Thinking:

    In your own words, what is Ari’s role in this system, and what is the farmer’s role? What does this show about the difference between an AI system and the human using it?

    4. Student Practice (Student-Facing Instructions)

    These are step-by-step instructions delivered directly to the students as they work independently or in groups

    Student Instructions

    Instruction

    Students will work in the same group of four throughout the module. 

    • Groups will share an Ari, camera, mat, and accessories.
    • Students may share a coding device or work independently on their own devices.
    • Each student will record their work in the corresponding pages of their Field Notebook.

    Please upload any student resources, videos, etc. (Max. size: 512 MB videos, 10 MB all other files)

    Goal

    Lesson Extension (Optional)

    Add student instructions for a lesson extension.

    Instruction

    Please upload any student resources, videos, etc. (Max. size: 512 MB videos, 10 MB all other files)

    Goal

    5. Supplements

    A. Lesson Closure (Optional)
    Give tips for how to wrap up the lesson and assess student learning. (Want to add an attachment? Use Part C, below.)

    B. Academic Standards (At least one standard required)
    Choose a category from the dropdown on the left. In the blank on the right, begin typing the number of the standard.

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      C. Add Other Attachments (Optional)
      Please upload any student handouts, videos, sample solutions, etc. (Max. size: 1 GB videos, 10 MB all other files)

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      Review

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