Benefits and Implementation of Parametric Modeling in Education

Imagine trying to explain the structure of a DNA molecule, the idea of a parabola, or the dynamic forces shaping the Milky Way - all through words alone. Traditional lectures and textbooks often fall short, leaving students struggling to visualize abstract concepts.

Lectures and textbooks can be passive learning experiences, leading to disengagement and difficulty retaining information. Our brains are wired to process visual information efficiently. Without visualizations, students have difficulty mentally manipulating and exploring complex ideas.

Not all students learn the same way. Most are visual learners who rely heavily on pictures, diagrams, and models to understand information. With visuals, students may be able to identify key elements, analyze relationships, and develop practical solutions.

But what if there was a way to bring these ideas to life, to allow students to see a sphere morph into a cone or witness a complex function's graph come to life?

Parametric modeling involves creating designs with adjustable parameters that control the overall shape. It allows students to see the results and manipulate the variables themselves. For instance, it allows them to see how changing the parameters in the equation (y = a(x^2) + b) transforms the parabola on the screen.

Suddenly, an abstract formula becomes a dynamic and interactive object, making the connection between the equation and visual representation clear. The same principle can be applied to higher-order polynomials, trigonometric functions, and even 3D graphing of complex equations.

But do teachers have to become computational designers using coding and software to create and analyze designs? The answer is no, they don't! Using the right tools, teachers can master parametric modeling to improve the overall learning experience for their students.

However, many parametric modeling tools can be resource-intensive, requiring powerful computers to run. Plus, the interface and tools may be unfamiliar and require dedicated training for teachers to become proficient.

Therefore, in this article, we'll introduce BeeGraphy, a lightweight, cloud-based platform developed for computational designers that allows teachers and other users to create 2D and 3D models using a simplified algorithmic approach. We'll cover the following.

1. Understanding BeeGraphy
2. Benefits of BeeGraphy in Education

a. Interactive Learning

b. Collaboration and Creativity

3. Case Studies From Around the World

a. Using BeeGraphy to Teach Mathematics in South Korea

b. Using BeeGraphy to Teach Architecture in France

c. Using BeeGraphy to Teach Digital Fabrication in Colombia

4. Curriculum Integration Strategies

Understanding BeeGraphy

BeeGraphy's parametric modeling capabilities can help teachers create dynamic and interactive visualizations of complex concepts in science, math, and engineering. For instance, teachers can design models of molecules, geometric shapes, or even historical structures that students can manipulate and explore virtually. This can make learning more engaging and help students develop a deeper understanding of the subject matter.

Following are a few examples of how BeeGraphy can be applied to scientific subjects:

• Math: Use BeeGraphy to visualize mathematical concepts in geometry, trigonometry, and calculus. For instance, students can design and manipulate 3D shapes to understand concepts like surface area and volume or graph mathematical functions in 3D space.
• Science: Use BeeGraphy to model scientific concepts in biology, chemistry, and physics. Students can design models of molecules, cells, or even solar systems to better understand their structures and interactions.
• Engineering: Use BeeGraphy to introduce engineering design concepts. Students can create and virtually test designs for bridges, machines, or other structures.
• Computer Science: Use BeeGraphy to teach the basics of parametric modeling and 3D design, which are important concepts in computer-aided design (CAD) and other computer science fields.
• Art and Design: Use BeeGraphy to create 3D models for art projects or teach design and modeling principles.

BeeGraphy's user-friendly interface allows teachers to create dynamic and interactive visualizations without the complexity of traditional parametric modeling software. Additionally, BeeGraphy doesn't require installation because it is cloud-based, which means it runs on any device with an internet connection, making it accessible to all students regardless of their school's computer resources.

Benefits of BeeGraphy in Education

BeeGraphy can be a valuable tool for educators looking to make learning more engaging, visual, and interactive.

Interactive Learning

BeeGraphy goes beyond static visuals. Students can manipulate the models in real-time, experimenting with changes in parameters and observing the effects. This hands-on approach actively engages them in the learning process.

3D modeling can be more exciting and stimulating for students compared to traditional 2D representations. This increased engagement can lead to better information retention and a deeper interest in the subject matter.

Collaboration and Creativity

The cloud-based platform allows students to collaborate on projects, fostering communication, teamwork, and problem-solving skills as they design and refine models. Additionally, students can easily embed the models they create using BeeGraphy onto their websites.

Being cloud-based, BeeGraphy is accessible from any device with a web browser. This eliminates the need for expensive software installations and allows students to work on projects anywhere with an internet connection.

What sets BeeGraphy apart from other parametric modeling software is its free access for schools and educators, which allows them to incorporate 3D modeling into classrooms without any cost.

How BeeGraphy simplifies complex 3D objects?

BeeGraphy highlights the importance of understanding the underlying 2D structure of objects for efficient 3D modeling and printing.

Imagine a cardboard box. It's a 3D object, but the cardboard itself is a flat sheet (2D). To create that box, we don't print the entire box shape directly. Instead, we use a 2D template with cuts and folds that, when assembled, create the 3D box.

BeeGraphy enables understanding the 2D nature of the 3D model and easily switching between 2D and 3D. For a quick demo, you can check this cardboard box and change the last parameter from 3D to 2D to see how the cardboard box will unfold.

Case Studies From Around The World

Here are three examples of teachers in South Korea, France, and Colombia using BeeGraphy to simplify complex topics. As you explore these examples, you'll see how BeeGraphy adapts to various learning environments. It empowers students from different schools and educational levels, from bachelor's to master's degrees, and even benefits educators themselves.

Using BeeGraphy to Teach Mathematics in South Korea

Jiyun Ko, a math content creator and teacher at the Gomath Academy in South Korea, struggled with finding the right tools to visualize difficult math concepts for her students. Traditional 3D modeling software like Rhino and Grasshopper, while excellent for visual thinking, were too complex for students to learn and use. Other math visualization tools, like GeoGebra and Algeomath, lacked the flexibility to incorporate creative elements and make math problems engaging for students.

Later, Jiyun found out about BeeGraphy. According to her, the user-friendly interface and web-based accessibility make it a perfect fit for the classroom. Students can access the tool easily and collaborate with each other to solve problems.

"Why do students hate math? I think it's because they solve math problems in a rigid and static way. I think BeeGraphy is a powerful visualization design tool that allows you to create your own design for a math problem in a variety of fun ways." (Jiyun Ko, Math Teacher at the GoMath Academy, South Korea)

Jiyun believes that BeeGraphy's ability to visualize math problems in a fun and creative way can improve students' mathematical thinking skills and make learning more enjoyable. She is currently working with her students on a math problem-solving project using BeeGraphy and 3D printing to solve math problems. Her hypothesis is that these visual clues will be more helpful in improving students' mathematical thinking skills than traditional long explanations.

During our conversation, Jiyun talked about the possibility of sharing her teaching methods with other educators. She is co-authoring a book with her professor that showcases BeeGraphy's application in solving ten math problems commonly found difficult by Korean students. Additionally, she plans to create YouTube content to introduce BeeGraphy to a wider audience of Korean math teachers.

Using BeeGraphy to Teach Architecture in France

Laurent Lescop, a professor at ENSA (school of architecture) of Nantes University, uses BeeGraphy to introduce his students to algorithmic design. Recognizing the need for an accessible and user-friendly tool, Lescop incorporates BeeGraphy into his curriculum, allowing students to explore design concepts at their own pace.

Lescop's teaching approach prioritizes clear and logical thinking over mastering the software itself. He begins by showcasing various BeeGraphy projects, followed by guided tutorials that cater to different skill levels. This student-centered approach empowers them to understand algorithmic design without getting bogged down by complex software intricacies.

According to Lescop, BeeGraphy's key advantage lies in its collaborative features. The easy-to-use interface and seamless sharing capabilities create a collaborative learning environment. Students can assist one another, accelerating their understanding and progress.

While Lescop acknowledges his own expertise in Grasshopper, a more advanced algorithmic design tool, he recognizes BeeGraphy's added value. BeeGraphy provides a gentle introduction for beginners, while Grasshopper remains a powerful tool for complicated tasks requiring specialized functions or code integration. Lescop emphasizes this added value, highlighting that BeeGraphy, from his own perspective, is particularly useful in object design, mechanical parts, and furniture design - areas where a user-friendly approach is important.

"It's important to note that I'm speaking from an architect's perspective and considering architectural needs. For object design, mechanical parts, or furniture, Beegraphy is truly well-suited and a perfect solution." (Laurent Lescop, Professor at Ensa of Nantes University, France)

Lescop's students have embraced BeeGraphy, appreciating its ability to streamline their exploration of algorithmic design. However, he acknowledges a gap in the digital culture within French architecture, where his colleagues have not yet widely adopted such tools. Lescop remains optimistic, believing that the new generation will spearhead the development of modern design processes empowered by algorithms.

Using BeeGraphy to Teach Digital Fabrication in Colombia

Plinio Barraza, a professor at Universidad de los Andes in Colombia who teaches computational tools for digital fabrication, is considering changing his curriculum to include BeeGraphy.

A cornerstone of Barraza's classes is the application of digital fabrication techniques. A typical project might involve transforming a basic mesh into files suitable for 3D printing or laser cutting. This process necessitates coding expertise to manipulate the mesh surface into shapes that align with specific construction methods, like reciprocating frames or folded cardboard structures. BeeGraphy's potential lies in replacing Grasshopper and Blender Sverchok for Barraza's computational and parametric design classes.

The decision to adopt BeeGraphy comes from two key factors. Firstly, unlike Blender Sverchok, BeeGraphy offers a user experience closer to industry-standard software like Grasshopper, which many students will likely encounter professionally. Secondly, BeeGraphy is completely free to use, making it a more accessible option for students and institutions.

He believes that BeeGraphy has additional advantages that enhance the educational experience. Collaborative features allow for online teamwork and real-time instructor support. Instructors can share reusable code snippets, while students can conveniently submit assignments for grading.

Previously, Barraza relied on a mix of tools, including Rhino's Grasshopper, Blender's Sverchok and Geometry Nodes, Python, and Threejs. However, he recognizes the advantage of BeeGraphy's visual programming interface. This method proves to be more intuitive for beginners and visual learners compared to traditional coding.

"The visual programming experience offered in BeeGraphy is much more intuitive for the novice programmer and for designers who think visually." (Plinio Barraza, Professor at Universidad de los Andes, Columbia)

According to Barraza, other tools share similarities with BeeGraphy's graphical approach but come with limitations. Geometry Nodes and Sverchok are challenging to learn and not widely used in professional settings. Grasshopper, the industry standard, comes with a significant cost barrier. BeeGraphy bridges this gap by offering a user-friendly and accessible alternative.

Curriculum integration strategies

Schools could provide professional development sessions for educators focused on BeeGraphy. These sessions can cover basic usage, advanced features, and best practices for classroom integration​.

Teachers can integrate BeeGraphy into math, science, and art classes by designing lessons that require parametric modeling. For example, math classes can use BeeGraphy to visualize algebraic functions and geometric shapes, while art classes can explore 3D design projects.

Additionally, teachers can use BeeGraphy's collaboration tools to facilitate group projects. Students can work together in real time, providing feedback and adjusting shared models.

Why is BeeGraphy the best choice for education?

Besides all the technical and educational aspects mentioned above about BeeGraphy, one more feature truly stands out compared to all other computational design and parametric modeling software. BeeGraphy is free for education. This means educators and students will always have access to premium software at no cost, demonstrating BeeGraphy's commitment to improving the learning experience worldwide.

While some schools and educators might find alternative software appealing, these options often come with high subscription fees. As a result, they might consider a risky alternative: cracked software.

Cracked software is dangerous. It exposes users to malware and viruses and creates security vulnerabilities that could compromise sensitive school data. Additionally, using cracked software is a clear violation of copyright law and undermines the ethical foundation of education, which prioritizes respect for intellectual property.

Key Takeaways

1. BeeGraphy helps students understand complex subjects by creating dynamic, interactive visualizations.
2. Being lightweight, BeeGraphy works on any device with internet access, ensuring all students can use it.
3. BeeGraphy supports diverse subjects like math, science, engineering, and art, making it a valuable educational tool.
4. BeeGraphy is free for schools, educators, and students, enabling them to integrate advanced 3D modeling without cost.
5. BeeGraphy teaches parametric modeling, preparing students for engineering, architecture, and design careers.
6. At Gomath Academy in South Korea, BeeGraphy helped students visualize and solve complex math problems, enhancing their mathematical thinking skills.
7. At ENSA Nantes in France, BeeGraphy introduced students to algorithmic design, making complex concepts more accessible and fostering creative exploration in architecture.
8. At Universidad de los Andes in Colombia, BeeGraphy replaced traditional software for teaching digital fabrication, providing a more intuitive and free solution for students.