Code, Click, and Spin: The Digital Spinner

Bridging Computer Science, Design, Physics, and Math with Interactive Classroom Experiences

Welcome to the home of innovation, where the classic game spinner is reimagined for the digital age. Here, I combine the time-honored joy of anticipation with the precision of modern technology. This spinner isn’t just a tool; it’s a harmonious blend of design, mathematics, and computer science, all brought to life through the power of conversational coding with ChatGPT.

Check it out:

My original Scratch project and code:
https://scratch.mit.edu/projects/970791967

Features:

Programmatic Creation: Spinners are generated through Python code, leveraging ChatGPT’s conversational AI to refine the design and functionality. This ensures a seamless and efficient process from concept to creation.

Dynamic Spinner Size: The tool automatically adjusts the spinner’s size based on the participant list length. By parsing a comma or space-delimited string of names, it dynamically generates a spinner with the corresponding number of sectors, making it adaptable to various group sizes.

Mathematical Precision: Incorporates mathematical formulas to accurately determine the spinner’s winning sector based on degrees rotated. This not only enhances the fairness of the selection process but also introduces students to practical applications of geometry and arithmetic.

Engaging Sound Effects: The inclusion of sound effects and the potential for an AI-hosted voice add an auditory dimension to the experience, making the spinner more interactive and enjoyable.

Interdisciplinary Educational Tool: This project exemplifies interdisciplinary learning, combining elements of Language Arts (communicating ideas to AI), Computer Science (coding the spinner in Python and Scratch), MYP Design (creating a user-friendly interface), and Mathematics (applying geometric and arithmetic principles).

Accessibility and Integration: Designed to run in Google Colab, the spinner tool is accessible and easy to share, thanks to its integration with Google Drive. It requires no setup, making it readily available for educators and students.

Active Learning: Encourages active learning by allowing students to directly engage with coding concepts and see the immediate impact of their work. This hands-on experience is invaluable in reinforcing learning objectives and fostering a deeper understanding of the subject matter.

Conclusion:

The spinner is a bridge between the physical and digital.  This project is a testament to the power of interdisciplinary collaboration, demonstrating that with creativity, technical skill, and a bit of AI assistance, the possibilities for enhancing education are limitless.

Read the full article on LinkedIn:
https://www.linkedin.com/pulse/code-click-spin-avi-megiddo-k97mc/

My original Scratch project and code:
https://scratch.mit.edu/projects/970791967

My createSpinners Python code:

Code, Click, and Spin: The Digital Spinner

Bridging Computer Science, Design, Physics, and Math with Interactive Classroom Experiences

Welcome to the home of innovation, where the classic game spinner is reimagined for the digital age. Here, I combine the time-honored joy of anticipation with the precision of modern technology. This spinner isn’t just a tool; it’s a harmonious blend of design, mathematics, and computer science, all brought to life through the power of conversational coding with ChatGPT.

Check it out:

My original Scratch project and code:
https://scratch.mit.edu/projects/970791967

Features:

Programmatic Creation: Spinners are generated through Python code, leveraging ChatGPT’s conversational AI to refine the design and functionality. This ensures a seamless and efficient process from concept to creation.

Dynamic Spinner Size: The tool automatically adjusts the spinner’s size based on the participant list length. By parsing a comma or space-delimited string of names, it dynamically generates a spinner with the corresponding number of sectors, making it adaptable to various group sizes.

Mathematical Precision: Incorporates mathematical formulas to accurately determine the spinner’s winning sector based on degrees rotated. This not only enhances the fairness of the selection process but also introduces students to practical applications of geometry and arithmetic.

Engaging Sound Effects: The inclusion of sound effects and the potential for an AI-hosted voice add an auditory dimension to the experience, making the spinner more interactive and enjoyable.

Interdisciplinary Educational Tool: This project exemplifies interdisciplinary learning, combining elements of Language Arts (communicating ideas to AI), Computer Science (coding the spinner in Python and Scratch), MYP Design (creating a user-friendly interface), and Mathematics (applying geometric and arithmetic principles).

Accessibility and Integration: Designed to run in Google Colab, the spinner tool is accessible and easy to share, thanks to its integration with Google Drive. It requires no setup, making it readily available for educators and students.

Active Learning: Encourages active learning by allowing students to directly engage with coding concepts and see the immediate impact of their work. This hands-on experience is invaluable in reinforcing learning objectives and fostering a deeper understanding of the subject matter.

Conclusion:

The spinner is a bridge between the physical and digital.  This project is a testament to the power of interdisciplinary collaboration, demonstrating that with creativity, technical skill, and a bit of AI assistance, the possibilities for enhancing education are limitless.

Read the full article on LinkedIn:
https://www.linkedin.com/pulse/code-click-spin-avi-megiddo-k97mc/

My original Scratch project and code:
https://scratch.mit.edu/projects/970791967

My createSpinners Python code:

Student Comment Generator

By Avi Megiddo and ChatGPT

In the educational landscape, providing individualized and fair feedback to students is a cornerstone of effective teaching. Yet, the task of crafting comments can be a daunting challenge for educators, particularly when faced with the sheer volume of evaluations required.

The Student Comment Generator supports the creation of student feedback based on set performance metrics.

Simplifying Feedback through Automation

The Student Comment Generator is a custom Google Apps Script designed to automate the process of writing student feedback comments in Google Sheets. It works by analyzing performance metrics from specified columns and using predefined phrases to compose tailored comments for each student.

The tool is designed with both efficiency and fairness in mind. By automating the initial draft of student comments, it offers a consistent framework that ensures each student is evaluated against the same criteria. This saves valuable time for educators and fosters a more equitable assessment environment.

Instructions

Setting Up Your Sheet: Begin by entering each student’s first name in column B and selecting the appropriate gender pronoun in column A from a dropdown list. This step primes the tool with the necessary personalization details for each comment.

Name and gender setup

Defining Performance Metrics: In row 1, cells D1 through K1, define up to eight performance metrics such as Summative completion or Participation. These metrics drive the content of the automated comments.

Performance metrics header row example

I teach MYP Design, and we use performance metrics such as overall completion, design cycle knowledge, and original and creative work.

Performance level dropdowns

Crafting Performance Descriptors: For each metric, write corresponding low, middle, and high descriptors in columns N through U. These descriptors are used to construct comments reflecting each student’s performance.

The descriptor text should include the placeholder [Name] and the pronouns He, he, His, his, him, and himself instead of actual student names and specific gender pronouns. The script replaces these placeholders with the correct student name and pronouns automatically.

Masculine pronouns are used intentionally in templates for linguistic clarity and reliable substitution. This ensures accurate replacement across all genders during automation.

Descriptor phrases table

Generating Comments: With a single click in cell L1, comments tailored to each student’s performance populate in column C. An optional final sentence can be added in column L for personalization.

Generated comments

Continuity for New Classes: Duplicate the sheet for new classes and replace names, genders, and metrics as needed.

Duplicating the sheet

Key Components: Understanding the Script

  • Data Retrieval: The script identifies the ranges containing student data and performance metrics. Columns D through K store metric levels.
  • Comment Construction: The script matches each metric level to predefined phrases in columns N through U and assembles a coherent comment.

Script logic overview

  • Rich Text Styling: Sentences are color coded based on performance level to enhance clarity.
  • Final Output: Comments are written back to the sheet with consistent formatting aligned to each student.

Styled comments

© Avi Megiddo 2023 ·
CC BY-NC